mhurhangee/ep-ind-claims huggingface dataset:
A terminal comprising: a transmission section configured to transmit a beam failure recovery request signal; and a control section configured to maintain, in a beam failure recovery procedure including the transmission of the beam failure recovery request signal, a monitoring of downlink control information for a random access, characterised in that the control section is configured to, if a medium access control, MAC, layer timer has been running before the beam failure recovery procedure is started, maintain the running of the MAC layer timer until the MAC layer timer expires, and the MAC layer timer comprises a timer started by a timing advance command included in a random access response. a transmission section configured to transmit a beam failure recovery request signal; and a control section configured to maintain, in a beam failure recovery procedure including the transmission of the beam failure recovery request signal, a monitoring of downlink control information for a random access, characterised in that the control section is configured to, if a medium access control, MAC, layer timer has been running before the beam failure recovery procedure is started, maintain the running of the MAC layer timer until the MAC layer timer expires, and the MAC layer timer comprises a timer started by a timing advance command included in a random access response.
A blood cell lysis reagent comprising: (i) TRIS, (ii) lithium lauryl sulfate at a concentration of from 4% (w/v) to 15% (w/v), and (iii) magnesium chloride at a concentration of from 20 mM to 35 mM, wherein the reagent has a pH that is greater than 5.5.
A rotary drive for a medical device, the rotary drive comprising: a non-magnetic rotary motor including a rotor coupled to a stator with a friction material; a rotary motion encoder connected to the rotor, the rotary motion encoder being configured to generate a number of encoder steps measuring a rotational distance of the rotor; and at least one electronic processor, characterized in that the electronic processor is programmed to: determine at least one of a slippage value of the rotary motor measured during motor operation and a coasting value of the rotary motor measured after stopping motor operation based on a comparison of an actual count of encoder steps and an expected count of encoder steps, wherein a lower actual count compared with the expected count indicates greater wear status and wherein a higher actual count compared with the expected count indicates greater wear status; determine a wear status of the rotary motor which constitutes a wear status of the friction material based on at least one of the determined slippage value and the determined coasting value; and generate a warning to replace the motor when the measured slippage value and/or the measured coasting value exceeds a first threshold. a non-magnetic rotary motor including a rotor coupled to a stator with a friction material; a rotary motion encoder connected to the rotor, the rotary motion encoder being configured to generate a number of encoder steps measuring a rotational distance of the rotor; and at least one electronic processor, characterized in that the electronic processor is programmed to: determine at least one of a slippage value of the rotary motor measured during motor operation and a coasting value of the rotary motor measured after stopping motor operation based on a comparison of an actual count of encoder steps and an expected count of encoder steps, wherein a lower actual count compared with the expected count indicates greater wear status and wherein a higher actual count compared with the expected count indicates greater wear status; determine a wear status of the rotary motor which constitutes a wear status of the friction material based on at least one of the determined slippage value and the determined coasting value; and generate a warning to replace the motor when the measured slippage value and/or the measured coasting value exceeds a first threshold. determine at least one of a slippage value of the rotary motor measured during motor operation and a coasting value of the rotary motor measured after stopping motor operation based on a comparison of an actual count of encoder steps and an expected count of encoder steps, wherein a lower actual count compared with the expected count indicates greater wear status and wherein a higher actual count compared with the expected count indicates greater wear status; determine a wear status of the rotary motor which constitutes a wear status of the friction material based on at least one of the determined slippage value and the determined coasting value; and generate a warning to replace the motor when the measured slippage value and/or the measured coasting value exceeds a first threshold.
A method for transmitting data from a subsea device to a surface device, comprising: acquiring data using a plurality of sensors of the subsea device, wherein the data represents a subsea environment; compressing the data using one or more processors of the subsea device, wherein compressing the data comprises partitioning the data into a low-resolution representation and one or more enhancement layers having a higher resolution; transmitting the low-resolution representation wirelessly from the subsea device to the surface device; decompressing the low-resolution representation using the surface device; and transmitting (208 one or more enhancement layers wirelessly from the subsea device to the surface device in sequence of increasing resolution, while a lower resolution representation is being viewed by a user; characterized in that compressing the data further comprises identifying regions of interest in images represented by the data using passive markers, active markers, or both and adjusting video compression parameters, to assist in the reconstruction of the selected data in the regions of interest. acquiring data using a plurality of sensors of the subsea device, wherein the data represents a subsea environment; compressing the data using one or more processors of the subsea device, wherein compressing the data comprises partitioning the data into a low-resolution representation and one or more enhancement layers having a higher resolution; transmitting the low-resolution representation wirelessly from the subsea device to the surface device; decompressing the low-resolution representation using the surface device; and transmitting (208 one or more enhancement layers wirelessly from the subsea device to the surface device in sequence of increasing resolution, while a lower resolution representation is being viewed by a user; characterized in that compressing the data further comprises identifying regions of interest in images represented by the data using passive markers, active markers, or both and adjusting video compression parameters, to assist in the reconstruction of the selected data in the regions of interest.
A Method for manufacturing carbonous material, the method comprising - mixing a solid composition with first water to form a carbonatable mixture (M2C), the solid composition comprising a compound comprising an element selected from the Group I or II of the periodic table of elements excluding hydrogen, - adding liquid or gaseous carbonating fluid to the carbonatable mixture (M2C) to carbonate the carbonatable mixture (M2C) in a primary reactor arrangement to form carbonated mixture, the carbonating fluid comprising at least 1 vol % carbon dioxide (CO 2), such that a pH of the carbonated mixture is less than 9, - separating a first water fraction and a first solid fraction from the carbonated mixture by using a primary dewatering apparatus, - adding a second water to the first solid fraction to form sludge comprising at least a part of the carbonated mixture, and thereafter - adding a stabilizer comprising iron (Fe) to the sludge comprising at least a part of the carbonated mixture to stabilize the carbonated mixture in a secondary reactor arrangement to produce a mixture comprising the carbonous material. - mixing a solid composition with first water to form a carbonatable mixture (M2C), the solid composition comprising a compound comprising an element selected from the Group I or II of the periodic table of elements excluding hydrogen, - adding liquid or gaseous carbonating fluid to the carbonatable mixture (M2C) to carbonate the carbonatable mixture (M2C) in a primary reactor arrangement to form carbonated mixture, the carbonating fluid comprising at least 1 vol % carbon dioxide (CO 2), such that a pH of the carbonated mixture is less than 9, - separating a first water fraction and a first solid fraction from the carbonated mixture by using a primary dewatering apparatus, - adding a second water to the first solid fraction to form sludge comprising at least a part of the carbonated mixture, and thereafter - adding a stabilizer comprising iron (Fe) to the sludge comprising at least a part of the carbonated mixture to stabilize the carbonated mixture in a secondary reactor arrangement to produce a mixture comprising the carbonous material.
A multimodal polyethylene polymer having an MFR 2 of 0.05 to 10.0 g/10min, a density of 940 kg/m 3 or more, a tensile modulus of 900 MPa or more and wherein / M w M z ≤ 0.29 / M n M w + 0.8.
An eyeglasses frame comprising: - a front portion, - a first and a second temple band (3, 4) connected to the front portion and - an attachment member rotatably connected to the front portion to rotate in relation to the front portion around a first rotation axis of the attachment member, wherein the attachment member comprises two receiving portions arranged parallel to each other and opposite to each other in relation to the first rotation axis wherein each receiving portion is configured to receive a user unit (7, 7') to attach the user unit (7, 7') to the attachment member and to enable rotation of the user unit (7, 7') in relation to the attachment member around a second rotation axis, wherein each receiving portion 6 comprises a groove arranged to receive an inserting portion (7.1, 7.1') of the user unit (7, 7') by inserting of the inserting portion (7.1, 7.1') into the grove, wherein a second user unit comprises two lenses fixedly connected to a frame of the second user unit, wherein the second axis is perpendicular to the first axis and wherein the attachment member is connected to the front portion at a middle position of the front portion between the first and the second temple band (3, 4). - a front portion, - a first and a second temple band (3, 4) connected to the front portion and - an attachment member rotatably connected to the front portion to rotate in relation to the front portion around a first rotation axis of the attachment member, wherein
A medical air separator for separating gas bubbles, especially micro gas bubbles, from blood passed through the air separator, comprising a substantially hollow-cylindrical air separating chamber having a blood inlet disposed on one side of the air separating chamber viewed in the longitudinal direction, and a blood outlet formed on the other side viewed in the longitudinal direction, wherein the air separating chamber is configured so that a blood flow rotating about a longitudinal axis of the chamber substantially in spiral shape can be formed from the blood inlet to the blood outlet, wherein the air separator comprises a driven actuator for increasing rotation of the spiral-shaped blood flow; and the blood inlet is arranged on the side of a chamber cover and the blood outlet is arranged on the side of a chamber bottom, characterized in that the actuator comprises a drive unit for the air separating chamber so as to drive the latter along a circular or elliptic path of motion. the air separator comprises a driven actuator for increasing rotation of the spiral-shaped blood flow; and the blood inlet is arranged on the side of a chamber cover and the blood outlet is arranged on the side of a chamber bottom, characterized in that the actuator comprises a drive unit for the air separating chamber so as to drive the latter along a circular or elliptic path of motion.
A towed agricultural working tool comprising a central frame element, a headstock and left and right hand side frame elements (8,10) connected to the central frame element, each of the side frame elements (8,10) supporting at least one processing unit, in which the central frame element is connected to the headstock for pivoting movement at at least one connecting location, the headstock comprises a plurality of headstock elements (40,42,46) including an horizontal element comprising upper and lower headstock elements (40, 42) held in fixed relationship to one another, the central frame element comprises a plurality of central frame elements (60,62) held in fixed relationship to one another and located between the headstock elements (40,42,46) and one or more annular friction discs are arranged between the central frame element and the headstock at one of the at least one connecting locations at least one annular friction disc is arranged between at least one of the plurality of central frame elements (60,62) and one of the plurality of headstock elements (40,42,46), and the headstock elements (40,42,46), the central frame elements (60,62) and the one or more annular friction discs are clamped together in compression by a fastener, characterised in that the headstock elements (40,42,46), the central frame elements (60,62) and the at least one annular friction disc are mounted about a bushing. a central frame element, a headstock and left and right hand side frame elements (8,10) connected to the central frame element, each of the side frame elements (8,10) supporting at least one processing unit, in which the central frame element is connected to the headstock for pivoting movement at at least one connecting location, the headstock comprises a plurality of headstock elements (40,42,46) including an horizontal element comprising upper and lower headstock elements (40, 42) held in fixed relationship to one another, the central frame element comprises a plurality of central frame elements (60,62) held in fixed relationship to one another and located between the headstock elements (40,42,46) and one or more annular friction discs are arranged between the central frame element and the headstock at one of the at least one connecting locations at least one annular friction disc is arranged between at least one of the plurality of central frame elements (60,62) and one of the plurality of headstock elements (40,42,46), and the headstock elements (40,42,46), the central frame elements (60,62) and the one or more annular friction discs are clamped together in compression by a fastener, characterised in that the headstock elements (40,42,46), the central frame elements (60,62) and the at least one annular friction disc are mounted about a bushing.
A method for enabling status updates in a 5G core network, the method being performed in a network function, NF, service consumer node, comprising: sending a service discovery message to an NF repository function, NRF, requesting a service producer candidate; receiving a list comprising one or more candidates for the requested service producer, wherein the list comprises an indication of NF status for each candidate service producer in the list as well as a hypermedia link for query of current NF status of each candidate service producer in the list; sending a hypermedia request to one or more service producers in the received list, requesting a current NF status, utilizing the received hypermedia links; and receiving a current NF status from the one or more service producers in response to the sent request. sending a service discovery message to an NF repository function, NRF, requesting a service producer candidate; receiving a list comprising one or more candidates for the requested service producer, wherein the list comprises an indication of NF status for each candidate service producer in the list as well as a hypermedia link for query of current NF status of each candidate service producer in the list; sending a hypermedia request to one or more service producers in the received list, requesting a current NF status, utilizing the received hypermedia links; and receiving a current NF status from the one or more service producers in response to the sent request.
A hollow golf club head comprising: a face portion that forms a striking face; a crown portion that forms a crown outer surface and a crown inner surface; a sole portion that forms a sole outer surface and a sole inner surface; and a hosel portion, wherein the crown portion includes a crown atypically-shaped portion and a crown rib that is disposed on the crown inner surface, the crown atypically-shaped portion is a crown projection that forms a projection on the crown outer surface while forming a recess on the crown inner surface, or a crown recess that forms a recess on the crown outer surface while forming a projection on the crown inner surface, the crown rib is disposed on a crown center side relative to a center of the crown atypically-shaped portion, the crown rib is disposed on the crown center side relative to an entirety of the crown atypically-shaped portion, and the crown rib is located apart from the crown atypically-shaped portion. a face portion that forms a striking face; a crown portion that forms a crown outer surface and a crown inner surface; a sole portion that forms a sole outer surface and a sole inner surface; and a hosel portion, wherein the crown portion includes a crown atypically-shaped portion and a crown rib that is disposed on the crown inner surface, the crown atypically-shaped portion is a crown projection that forms a projection on the crown outer surface while forming a recess on the crown inner surface, or a crown recess that forms a recess on the crown outer surface while forming a projection on the crown inner surface, the crown rib is disposed on a crown center side relative to a center of the crown atypically-shaped portion, the crown rib is disposed on the crown center side relative to an entirety of the crown atypically-shaped portion, and the crown rib is located apart from the crown atypically-shaped portion.
A method for video decoding comprising: obtaining video pictures, wherein the video pictures are partitioned into a plurality of coding units (CUs), at least one of which is further partitioned into two prediction units (PUs) including at least one triangular shaped PU; determining whether a triangle prediction flag, which indicates whether a triangle prediction mode is enabled, is to be decoded for a current CU; and deriving the triangle prediction flag using Context-based Adaptive Binary Arithmetic Coding (CABAC) upon determining that the triangle prediction flag is to be decoded for the current CU; characterized in that contexts of the CABAC for the triangle prediction flag are derived based on a ratio of a CU height to a CU width. obtaining video pictures, wherein the video pictures are partitioned into a plurality of coding units (CUs), at least one of which is further partitioned into two prediction units (PUs) including at least one triangular shaped PU; determining whether a triangle prediction flag, which indicates whether a triangle prediction mode is enabled, is to be decoded for a current CU; and deriving the triangle prediction flag using Context-based Adaptive Binary Arithmetic Coding (CABAC) upon determining that the triangle prediction flag is to be decoded for the current CU; characterized in that contexts of the CABAC for the triangle prediction flag are derived based on a ratio of a CU height to a CU width.
Method for data transmission in a cellular data network, wherein the network comprises at least one base station (BS0, BS1) and at least one network node (2..8), which are connected either directly or via at least one further network node (2..8) to a base station (BS0, BS1), and in which the at least one network node (2..8) has a relay functionality, and in which the network topology is adapted in that during the operation network nodes (2..8) are dynamically connected to or disconnected from a base station (BS0, BS1) directly or indirectly via at least one further node (2..8), characterised in that the data transmission between individual network nodes (2..8) and between a network node (2..8) and a base station (BS0, BS1) takes place via a power supply network, a network node (2..8), which is associated with another base station (BS0, BS1), returns to a previous base station (BS0, BS1) or to its original base station (BS0, BS1), such that in the case of a failure of the connection to a base station at least one adjacent base station begins to search for the network node (2..8) of said base station, and a coordinated handoff of network nodes (2..8) from one network cell to another network cell is controlled by means of a targeted registering and deregistering.
Method of processing a radionavigation signal from at least one satellite, said method comprising the following steps implemented in a processing unit of a radionavigation receiver: - converting a radionavigation signal in the frequency domain by means of a Fourier transform so as to obtain a frequency radionavigation signal comprising several frequency components; - processing the frequency-domain radionavigation signal so as to process at least one frequency component known as the interfering component, the said component thus processed having been either attenuated or cancelled; - filtering the digital frequency radionavigation signal thus processed by means of a notch filter to obtain a filtered frequency radionavigation signal; - frequency transposition of the filtered frequency radionavigation signal in order to obtain a baseband frequency radionavigation signal; - converting the baseband frequency radionavigation signal by means of an inverse Fourier transform so as to obtain a time baseband radionavigation signal in which interference has been attenuated/removed. - converting a radionavigation signal in the frequency domain by means of a Fourier transform so as to obtain a frequency radionavigation signal comprising several frequency components; - processing the frequency-domain radionavigation signal so as to process at least one frequency component known as the interfering component, the said component thus processed having been either attenuated or cancelled; - filtering the digital frequency radionavigation signal thus processed by means of a notch filter to obtain a filtered frequency radionavigation signal; - frequency transposition of the filtered frequency radionavigation signal in order to obtain a baseband frequency radionavigation signal; - converting the baseband frequency radionavigation signal by means of an inverse Fourier transform so as to obtain a time baseband radionavigation signal in which interference has been attenuated/removed.