mhurhangee/ep-ind-claims huggingface dataset:
A method of operating a network node operating according to a carrier aggregation scheme, comprising: obtaining a list of potential secondary cells for a wireless device; blindly selecting a secondary cell for the wireless device from the list of potential secondary cells; configuring the wireless device with the selected secondary cell; and after configuring the wireless device with the selected secondary cell, monitoring (614, 616, 618, 620, 626, 628, 632) for at least one indication from the wireless device selected from the group consisting of: an indication that the selected secondary cell is an acceptable secondary cell for the wireless device; an indication that the selected secondary cell is not an acceptable secondary cell for the wireless device; or an indication from the wireless device that a neighboring cell of the selected secondary cell is better than the selected secondary cell; if the at least one indication is not received within a defined period of time, blindly selecting a new secondary cell for the wireless device from the list of potential secondary cells for the wireless device; and configuring the wireless device with the new secondary cell selected for the wireless device. obtaining a list of potential secondary cells for a wireless device; blindly selecting a secondary cell for the wireless device from the list of potential secondary cells; configuring the wireless device with the selected secondary cell; and after configuring the wireless device with the selected secondary cell, monitoring (614, 616, 618, 620, 626, 628, 632) for at least one indication from the wireless device selected from the group consisting of: an indication that the selected secondary cell is an acceptable secondary cell for the wireless device; an indication that the selected secondary cell is not an acceptable secondary cell for the wireless device; or an indication from the wireless device that a neighboring cell of the selected secondary cell is better than the selected secondary cell; an indication that the selected secondary cell is an acceptable secondary cell for the wireless device; an indication that the selected secondary cell is not an acceptable secondary cell for the wireless device; or an indication from the wireless device that a neighboring cell of the selected secondary cell is better than the selected secondary cell; if the at least one indication is not received within a defined period of time, blindly selecting a new secondary cell for the wireless device from the list of potential secondary cells for the wireless device; and configuring the wireless device with the new secondary cell selected for the wireless device.
An assembly including an arm having a rotatable brush (21,22,23,24) for cleaning a vehicle, the arm being rotatable about a generally vertical axis to move the brush between a parked position and a deployed position, the assembly being characterized in that the arm is supported by a mechanism such that the arm is in a raised position when the brush (21,22,23,24) is in the parked position and the arm is in a lowered position when the brush is in the deployed position and the arm is biased to move the brush towards the deployed position by the mechanism, wherein the mechanism includes a ramp arrangement having a ramp to move the arm between the raised position and the lowered position.
A system for placing an expandable medical device in a bifurcated body lumen, the system comprising: a balloon adapted to be inflated by an inflation pressure; and an expandable medical device into which the balloon is insertable, characterized in that the expandable medical device has a differentially expandable structure comprising a first section and a second section, wherein the first section is configured to expand at a lower inflation pressure than the second section, wherein the expandable medical device is formed with a plurality of struts interconnected by ductile hinges, and wherein the ductile hinge geometry differs between the first and second sections of the device, wherein the ductile hinges in the first section have smaller widths than the ductile hinges in the second section. a balloon adapted to be inflated by an inflation pressure; and an expandable medical device into which the balloon is insertable,
A mobile user equipment for receiving mobile user equipment specific information in a cellular communication system; the mobile user equipment comprising: means for receiving a transmission of the smallest block of data for transmission of user equipment specific information comprising combined mobile user equipment specific information for a plurality of mobile user equipment and for receiving an indication to assist the user equipment determine user equipment specific information for the user equipment from within the combined user equipment specific information; and means for determining user equipment specific information for the mobile user equipment from the smallest block of data for transmission of user equipment specific information.
A method of wireless communication by a user equipment, UE, comprising: receiving, from a base station, a plurality of signals through a plurality of beams transmitted by the base station, each of the plurality of beams corresponding to a respective antenna port of a plurality of antenna ports of the base station; performing channel estimation for each beam of the plurality of beams from the plurality of antenna ports based on the plurality of signals; selecting one or more candidate uplink precoders based on the channel estimation, the one or more candidate uplink precoders for use in scheduling a Physical Uplink Shared Channel, PUSCH; and transmitting, to the base station, a feedback signal including information about one or more beams selected from the plurality of beams, the feedback signal further including information about the selected one or more candidate uplink precoders. receiving, from a base station, a plurality of signals through a plurality of beams transmitted by the base station, each of the plurality of beams corresponding to a respective antenna port of a plurality of antenna ports of the base station; performing channel estimation for each beam of the plurality of beams from the plurality of antenna ports based on the plurality of signals; selecting one or more candidate uplink precoders based on the channel estimation, the one or more candidate uplink precoders for use in scheduling a Physical Uplink Shared Channel, PUSCH; and transmitting, to the base station, a feedback signal including information about one or more beams selected from the plurality of beams, the feedback signal further including information about the selected one or more candidate uplink precoders.
An in-shaft key aligning and locking device, comprising a first abutting shaft, a second abutting shaft, a replacement roller and a push arm, the replacement roller is sleeved on the first abutting shaft, the push arm is a push and pull rod and is configured to push or pull the replacement roller to achieve a position change of the replacement roller, an abutting shaft end of the first abutting shaft is provided with a matching shaft hole (1a1), and an abutting shaft end of the second abutting shaft is provided with a matching shaft shoulder (2a1), the matching shaft shoulder (2a1) can be inserted into the matching shaft hole (1a1) to achieve axial abutting connection between the first abutting shaft and the second abutting shaft, characterized in that, a positioning boss (1a2) is further arranged in the matching shaft hole (1a1), an end of the matching shaft shoulder (2a1) is further provided with a positioning groove (2a2), when the matching shaft shoulder (2a1) is inserted into the matching shaft hole (1a1) and the first abutting shaft is rotated, the positioning boss (1a2) can synchronously rotate with the first abutting shaft and be inserted into the positioning groove (2a2) to achieve circumferential positioning of the first abutting shaft and the second abutting shaft, and after the positioning, the replacement roller can be pushed by the push arm to be accurately guided onto the second abutting shaft from the first abutting shaft so as to achieve the replacement of the replacement roller.
A process for preparing a complex of at least one cyclodextrin and at least one active pharmaceutical ingredient comprising the steps of: a. Preparing a first solution (solution A) comprising at least one cyclodextrin and at least one solvent; b. Preparing a second solution (solution B) comprising at least one dissolved, partially dissolved or suspended API; c. Mixing said solution A and solution B by means of a microfludization system to produce a solution and/or suspension of at least one of said complex; d. Isolating said solution and/or suspension and/or optionally drying it; and e. Optionally collecting a powdered form of the complex. a. Preparing a first solution (solution A) comprising at least one cyclodextrin and at least one solvent; b. Preparing a second solution (solution B) comprising at least one dissolved, partially dissolved or suspended API; c. Mixing said solution A and solution B by means of a microfludization system to produce a solution and/or suspension of at least one of said complex; d. Isolating said solution and/or suspension and/or optionally drying it; and e. Optionally collecting a powdered form of the complex.
A computer-implemented method for battery power-savings of user equipment operating within a 5G network, the method comprising: Initiating, by one or more processors, a collection of transmission requirement data of logical channels for application-level data from a Service Data Adaptation Protocol, wherein logical channel identification, ID, application ID, and quality of service class identifier, QCI, indexing information is collected; creating, by the one or more processors, a list of the logical channels having acceptable QCI indexing for permissible transmission delay of packets, based on the logical channel identification, ID, application ID, and QCI indexing information; mapping, by the one or more processors, the list of the logical channels to related radio link control, RLC, channels; responsive to receipt of a packet by an RLC multiplexing layer, comparing, by the one or more processors, an RLC channel ID from a segmented automatic repeat request, ARQ, packet to the list of the logical channels with a permissible delay of transmission of packets; responsive to a match between the RLC channel ID and the list of the logical channels, saving, by the one or more processors, the packet to allocated memory in an RLC data structure; and responsive to receipt of a time-critical packet, submitting, by the one or more processors, the time-critical packet and the saved packet to a medium access control, MAC, carrier controller for transmission processing. Initiating, by one or more processors, a collection of transmission requirement data of logical channels for application-level data from a Service Data Adaptation Protocol, wherein logical channel identification, ID, application ID, and quality of service class identifier, QCI, indexing information is collected; creating, by the one or more processors, a list of the logical channels having acceptable QCI indexing for permissible transmission delay of packets, based on the logical channel identification, ID, application ID, and QCI indexing information; mapping, by the one or more processors, the list of the logical channels to related radio link control, RLC, channels; responsive to receipt of a packet by an RLC multiplexing layer, comparing, by the one or more processors, an RLC channel ID from a segmented automatic repeat request, ARQ, packet to the list of the logical channels with a permissible delay of transmission of packets; responsive to a match between the RLC channel ID and the list of the logical channels, saving, by the one or more processors, the packet to allocated memory in an RLC data structure; and responsive to receipt of a time-critical packet, submitting, by the one or more processors, the time-critical packet and the saved packet to a medium access control, MAC, carrier controller for transmission processing.
A method for detecting a tow start operation of an internal combustion engine in a motor vehicle, wherein a signal (a_ST) representing the activity and/or non-activity of a starter unit of the internal combustion engine is detected, and a tow start operation of the internal combustion engine is detected when, after detecting a successful start-up of the internal combustion engine (St_BK_e), the signal (a_ST) representing the activity and/or non-activity of the starter unit does not show any activity of the starter unit since the beginning of the start-up process of the internal combustion engine.
A Charged Particle Microscope, comprising: specimen; - A specimen holder, for holding a specimen; - A source, for producing a beam of charged particles; - An illuminator, for directing said beam so as to irradiate the specimen; - A detector (420,428), for detecting a flux of radiation emanating from the specimen in response to said irradiation, which illuminator comprises: - An aperture plate (A; 50) comprising an aperture region in a path of said beam, for defining a geometry of the beam prior to its impingement upon said specimen, said aperture region comprising a distribution of a plurality of holes, each of which is smaller than a diameter of the beam incident on the aperture plate, characterized in that said aperture plate is held by an exchanger mechanism that can be selectively invoked to place a variety of different aperture plates in said beam path. - A specimen holder, for holding a specimen; - A source, for producing a beam of charged particles; - An illuminator, for directing said beam so as to irradiate the specimen; - A detector (420,428), for detecting a flux of radiation emanating from the specimen in response to said irradiation, - An aperture plate (A; 50) comprising an aperture region in a path of said beam, for defining a geometry of the beam prior to its impingement upon said specimen, said aperture region comprising a distribution of a plurality of holes, each of which is smaller than a diameter of the beam incident on the aperture plate,
A sound pickup device comprising: a sound pickup part; and a holding part that includes a sound transmission part and is configured to hold the sound pickup part in an ear canal of a user in a mounted state, wherein the holding part includes: a ring body having an opening portion that serves as the sound transmission part, wherein the ring body is configured to be inserted into a cavum concha of the user and to be locked in a vicinity of an intertragic notch in the mounted state; and one or more arms each of which has one end coupled to the ring body and another end supporting the sound pickup part. a sound pickup part; and a holding part that includes a sound transmission part and is configured to hold the sound pickup part in an ear canal of a user in a mounted state, wherein the holding part includes: a ring body having an opening portion that serves as the sound transmission part, wherein the ring body is configured to be inserted into a cavum concha of the user and to be locked in a vicinity of an intertragic notch in the mounted state; and one or more arms each of which has one end coupled to the ring body and another end supporting the sound pickup part. a ring body having an opening portion that serves as the sound transmission part, wherein the ring body is configured to be inserted into a cavum concha of the user and to be locked in a vicinity of an intertragic notch in the mounted state; and one or more arms each of which has one end coupled to the ring body and another end supporting the sound pickup part.
A system for fluid aeration monitoring comprising: a vibration sensor configured to be mounted along a fluid flow path; a control circuit in signal communication with the vibration sensor; wherein the control circuit is configured to evaluate a signal received from the vibration sensor to determine frequencies of vibration; and magnitudes of vibration at particular frequencies; characterized by the fact that: - the control circuit is further configured to calculate one or more aeration parameters based on the frequencies and magnitudes of vibration, - the aeration parameters comprises at least one of an aeration amount, an aeration percentage, a size of air bubbles, a size classification of air bubbles. a vibration sensor configured to be mounted along a fluid flow path; a control circuit in signal communication with the vibration sensor; wherein the control circuit is configured to evaluate a signal received from the vibration sensor to determine frequencies of vibration; and magnitudes of vibration at particular frequencies; frequencies of vibration; and magnitudes of vibration at particular frequencies; characterized by the fact that: - the control circuit is further configured to calculate one or more aeration parameters based on the frequencies and magnitudes of vibration, - the aeration parameters comprises at least one of an aeration amount, an aeration percentage, a size of air bubbles, a size classification of air bubbles. - the control circuit is further configured to calculate one or more aeration parameters based on the frequencies and magnitudes of vibration, - the aeration parameters comprises at least one of an aeration amount, an aeration percentage, a size of air bubbles, a size classification of air bubbles.
A cold-forged unitary metal fastener, comprising: a top most head, said head being the largest diameter of the fastener; a shoulder extending axially downward from and located immediately below said head, said shoulder including an annular bottom displacer surface for displacing material into which said fastener is installed; a barrel-shaped shank (16, 18) formed by axial compression between a top die and a bottom die with a longitudinal cross-section having arcuate sides, located immediately below said displacer surface; and an undercut located at the juncture of said shank and said shoulder, said undercut being bounded above by said displacer surface and below by an outwardly divergent tapered arcuate surface of a top portion of the shank, and the bottom end of the shank having a flat surface with a central indent formed by a centered upwardly extending projection in the bottom die. a top most head, said head being the largest diameter of the fastener; a shoulder extending axially downward from and located immediately below said head, said shoulder including an annular bottom displacer surface for displacing material into which said fastener is installed; a barrel-shaped shank (16, 18) formed by axial compression between a top die and a bottom die with a longitudinal cross-section having arcuate sides, located immediately below said displacer surface; and an undercut located at the juncture of said shank and said shoulder, said undercut being bounded above by said displacer surface and below by an outwardly divergent tapered arcuate surface of a top portion of the shank, and the bottom end of the shank having a flat surface with a central indent formed by a centered upwardly extending projection in the bottom die.
An adaptable ostomy base plate comprising a flexible top film, the base plate having a first section and a second section, and having at least a first elastic skin-friendly adhesive on a proximal surface of said flexible top film, a stoma-receiving through-going hole defining an inner boundary of said first section, said first section being adjacent to and extending radially from said through-going hole and said second section surrounding said first section, an outer boundary of the second section defining an outer boundary of the base plate, and one or more release liners, the base plate having a substantially convex shape for initial engagement with a peristomal skin surface and configured to be invertible to a substantially concave shape to fittingly engage to a topography of the peristomal skin surface for permanent engagement thereto, the base plate comprising a reinforcement ring arranged on a distal surface of the flexible top film between the inner boundary and the outer boundary, characterized in that the first section comprises a series of concentric undulations, provided in a radial extent of the distal surface of the base plate from the inner boundary to a position under the reinforcement ring.
A resin composition for a self-adsorbing foam sheet, the resin composition comprising: 100 parts by mass of a (meth)acrylic acid ester copolymer resin which includes an N-methylol group, and whose glass transition temperature is -10°C or less; and 1 to 20 parts by mass of a carbodiimide crosslinking agent, wherein: monomeric units derived from monomers including N-methylol groups in the (meth)acrylic acid ester copolymer resin are 0.1% to 10% by mass, when the (meth)acrylic acid ester copolymer resin is 100% by mass; and the glass transition temperature is a value measured with the following method: 50 μm of a polyethylene terephthalate film in thickness is coated with the (meth)acrylic acid ester copolymer resin with a 250 μm applicator, and is dried at normal temperature for 24 hours, to obtain a resin film; and using the resin film, the glass transition temperature is measured at -50°C to 160°C in measurement temperature at 10°C/min in heating rate with a differential scanning calorimeter, conforming to JIS (Japanese Industrial Standards) K7121. 100 parts by mass of a (meth)acrylic acid ester copolymer resin which includes an N-methylol group, and whose glass transition temperature is -10°C or less; and 1 to 20 parts by mass of a carbodiimide crosslinking agent, wherein: monomeric units derived from monomers including N-methylol groups in the (meth)acrylic acid ester copolymer resin are 0.1% to 10% by mass, when the (meth)acrylic acid ester copolymer resin is 100% by mass; and the glass transition temperature is a value measured with the following method: 50 μm of a polyethylene terephthalate film in thickness is coated with the (meth)acrylic acid ester copolymer resin with a 250 μm applicator, and is dried at normal temperature for 24 hours, to obtain a resin film; and using the resin film, the glass transition temperature is measured at -50°C to 160°C in measurement temperature at 10°C/min in heating rate with a differential scanning calorimeter, conforming to JIS (Japanese Industrial Standards) K7121. monomeric units derived from monomers including N-methylol groups in the (meth)acrylic acid ester copolymer resin are 0.1% to 10% by mass, when the (meth)acrylic acid ester copolymer resin is 100% by mass; and the glass transition temperature is a value measured with the following method: 50 μm of a polyethylene terephthalate film in thickness is coated with the (meth)acrylic acid ester copolymer resin with a 250 μm applicator, and is dried at normal temperature for 24 hours, to obtain a resin film; and using the resin film, the glass transition temperature is measured at -50°C to 160°C in measurement temperature at 10°C/min in heating rate with a differential scanning calorimeter, conforming to JIS (Japanese Industrial Standards) K7121.