mhurhangee/ep-ind-claims huggingface dataset:
Method for introducing a borehole into the ground using two converging drill heads (1, 2), comprising the steps: detecting one of the two drill heads (1, 2) by means of a detection unit on the other drill head (1, 2) and adapting the direction of advance of at least one of the drill heads (1, 2) in relation to the other drill head (1, 2), wherein a pattern detected by one of the two drill heads (1, 2) is compared with a comparison pattern, wherein the comparison pattern is a pattern stored in a storage means, which pattern describes the drill head which is detected in a predetermined position or predetermined positions, and the pitch, roll, lateral deviation and/or vertical deviation of the detected drill head is detected and the direction of advance of at least one of the two drill heads (1, 2) is adapted when a predetermined deviation between the detected pattern and the comparison pattern is exceeded.
A wireless communication system node, where the node comprises an antenna arrangement, which antenna arrangement in turn comprises at least one array antenna (3, 4, 5; 3'), where each array antenna (3, 4, 5; 3') comprises a plurality of antenna elements (6, 6'), where at least a first set of antenna elements (7, 7') is formed from said plurality of antenna elements (6, 6'), whereby the node comprises a control unit, where, for at least one set of antenna elements (7; 7', 12'), the control unit is arranged to: form an antenna beam (9; 9a, 9b, 9c) that is steerable to a certain pointing angle (φ, φ 1, φ 2) in at least one plane by means of phase shifts applied to the antenna elements in said set of antenna elements (7, 7'), where the antenna beam (9; 9a, 9b, 9c) is formed for a signal having a certain bandwidth with a certain lowest frequency (f low), a certain highest frequency (f high), and a certain centre frequency (f c), symmetrically located between the lowest frequency (f low) and the highest frequency (f high); characterized in that the control unit is further arranged to determine the relative power (10a, 10b, 10c) of a received signal (11a, 11b, 11c; 11a', 11b') at a plurality of frequencies in the frequency band, from the lowest frequency (f low) to the highest frequency (f high); and determine a degree of angular pointing deviation (β b, β c) for the antenna beam (9; 9a, 9b, 9c) relative to the received signal (11a, 11b, 11c; 11a', 11b') by means of a degree of slant of the relative power (10a, 10b, 10c) of the received signal (11a, 11b, 11c; 11a', 11b'), from the lowest frequency (f low) to the highest frequency (f high). form an antenna beam (9; 9a, 9b, 9c) that is steerable to a certain pointing angle (φ, φ 1, φ 2) in at least one plane by means of phase shifts applied to the antenna elements in said set of antenna elements (7, 7'), where the antenna beam (9; 9a, 9b, 9c) is formed for a signal having a certain bandwidth with a certain lowest frequency (f low), a certain highest frequency (f high), and a certain centre frequency (f c), symmetrically located between the lowest frequency (f low) and the highest frequency (f high); characterized in that the control unit is further arranged to determine the relative power (10a, 10b, 10c) of a received signal (11a, 11b, 11c; 11a', 11b') at a plurality of frequencies in the frequency band, from the lowest frequency (f low) to the highest frequency (f high); and determine a degree of angular pointing deviation (β b, β c) for the antenna beam (9; 9a, 9b, 9c) relative to the received signal (11a, 11b, 11c; 11a', 11b') by means of a degree of slant of the relative power (10a, 10b, 10c) of the received signal (11a, 11b, 11c; 11a', 11b'), from the lowest frequency (f low) to the highest frequency (f high).
A method comprising: receiving sensor information from a first primary sensor, the first primary sensor positioned to receive information from a first portion of an industrial operation; receiving first sensor information from one or more secondary sensors, the one or more secondary sensors are arranged to provide additional information about the first portion of the industrial operation monitored by the first primary sensor indicative of current operating conditions of the first portion of the industrial operation; using the sensor information from the one or more secondary sensors to identify a transient condition; using the sensor information from the one or more secondary sensors and a machine learning algorithm to determine if the first portion of the industrial operation is operating in a normal or abnormal condition; and in response to determining that the first portion of the industrial operation is operating in a normal condition, using sensor information from the first primary sensor during the determined normal operating condition excluding the sensor information of the first primary sensor during a transient condition to derive a primary sensor signature to use for identifying abnormal conditions for the sensor information from the first primary sensor. receiving sensor information from a first primary sensor, the first primary sensor positioned to receive information from a first portion of an industrial operation; receiving first sensor information from one or more secondary sensors, the one or more secondary sensors are arranged to provide additional information about the first portion of the industrial operation monitored by the first primary sensor indicative of current operating conditions of the first portion of the industrial operation; using the sensor information from the one or more secondary sensors to identify a transient condition; using the sensor information from the one or more secondary sensors and a machine learning algorithm to determine if the first portion of the industrial operation is operating in a normal or abnormal condition; and in response to determining that the first portion of the industrial operation is operating in a normal condition, using sensor information from the first primary sensor during the determined normal operating condition excluding the sensor information of the first primary sensor during a transient condition to derive a primary sensor signature to use for identifying abnormal conditions for the sensor information from the first primary sensor.
A chorionic gonadotropin carboxy terminal peptide -modified coagulation factor consisting of a coagulation factor and three CTPs attached to the carboxy terminus of said coagulation factor, wherein said CTP-modified coagulation factor is: a CTP-modified Factor IX polypeptide consisting of the amino acid sequence of SEQ ID NO: 31 or of amino acids 47-545 of SEQ ID NO: 31; a CTP-modified Factor VII (FVII) polypeptide consisting of the amino acid sequence of SEQ ID NO: 25 or of amino acids 39-528 of SEQ ID NO: 25; or a CTP-modified activated Factor VIIa (FVIIa) consisting of the amino acid sequence of amino acids 39-528 of SEQ ID NO: 25. a CTP-modified Factor IX polypeptide consisting of the amino acid sequence of SEQ ID NO: 31 or of amino acids 47-545 of SEQ ID NO: 31; a CTP-modified Factor VII (FVII) polypeptide consisting of the amino acid sequence of SEQ ID NO: 25 or of amino acids 39-528 of SEQ ID NO: 25; or a CTP-modified activated Factor VIIa (FVIIa) consisting of the amino acid sequence of amino acids 39-528 of SEQ ID NO: 25.
A loudspeaker arrangement comprising: a frame comprising at least two mounting fixtures (20, 22) and a connecting element, wherein the connecting element connects the at least two mounting fixtures (20, 22) to each other; at least two loudspeakers (40, 42), wherein each of the at least two loudspeakers (40, 42) is arranged in a different one of the at least two mounting fixtures (20, 22), and an amplifier configured to amplify audio signals to be reproduced by the at least two loudspeakers (40, 42), wherein the amplifier is mechanically coupled to the connecting element between the at least two mounting fixtures (20, 22), wherein the connecting element is a flat connecting piece extending in a horizontal plane (x-y) between the at least two mounting fixtures (20, 22), each of the at least two mounting fixtures (20, 22) is configured to form a casing for one of the at least two loudspeakers (40, 42), the at least two mounting fixtures (20, 22) extend from a first side of the connecting element in a vertical direction (z), and the amplifier is arranged on a second side of the connecting element, the second side being opposite to the first side. a frame comprising at least two mounting fixtures (20, 22) and a connecting element, wherein the connecting element connects the at least two mounting fixtures (20, 22) to each other; at least two loudspeakers (40, 42), wherein each of the at least two loudspeakers (40, 42) is arranged in a different one of the at least two mounting fixtures (20, 22), and an amplifier configured to amplify audio signals to be reproduced by the at least two loudspeakers (40, 42), wherein the amplifier is mechanically coupled to the connecting element between the at least two mounting fixtures (20, 22), wherein the connecting element is a flat connecting piece extending in a horizontal plane (x-y) between the at least two mounting fixtures (20, 22), each of the at least two mounting fixtures (20, 22) is configured to form a casing for one of the at least two loudspeakers (40, 42), the at least two mounting fixtures (20, 22) extend from a first side of the connecting element in a vertical direction (z), and the amplifier is arranged on a second side of the connecting element, the second side being opposite to the first side.
A method to grind meat in a grinder, comprising: providing the meat to the grinder via a hopper where the hopper includes a feeder worm for feeding the meat to a process unit, where the process unit comprises a rotating processing worm and a cutting set, the rotating processing worm being configured to receive the meat from the feeder worm and convey it to the cutting set which grinds the meat, wherein the method further comprises: automatically adjusting the revolutions per minute of the rotating processing worm in response to a pressure creation in the process unit, wherein the pressure created in the process unit is detected by the power consumption of the motor device driving the rotating processing worm. providing the meat to the grinder via a hopper where the hopper includes a feeder worm for feeding the meat to a process unit, where the process unit comprises a rotating processing worm and a cutting set, the rotating processing worm being configured to receive the meat from the feeder worm and convey it to the cutting set which grinds the meat, wherein the method further comprises: automatically adjusting the revolutions per minute of the rotating processing worm in response to a pressure creation in the process unit, wherein the pressure created in the process unit is detected by the power consumption of the motor device driving the rotating processing worm. automatically adjusting the revolutions per minute of the rotating processing worm in response to a pressure creation in the process unit, wherein the pressure created in the process unit is detected by the power consumption of the motor device driving the rotating processing worm.
A method for optimizing road traffic within an application server providing recommended itineraries to users connected to said application server from communication terminals, each recommended itinerary being provided to a user based on a user profile containing the departure or arrival date, and the departure and arrival location, comprises the following steps within the application server: comparing the itineraries recommended to users whose starting date belongs to a given interval of time, producing a set of users whose compared recommended itineraries have at least one itinerary segment of given length in common, and modifying an itinerary recommended to at least one user belonging to said set of users. comparing the itineraries recommended to users whose starting date belongs to a given interval of time, producing a set of users whose compared recommended itineraries have at least one itinerary segment of given length in common, and modifying an itinerary recommended to at least one user belonging to said set of users.
A Customer Replaceable Unit Monitor, CRUM, unit comprising: a power extracting circuit configured to, when a clock signal is received from an image forming apparatus, extract power from a high value of the clock signal and store the extracted power in a capacitive element; and a controller configured to operate using the extracted power, characterised in that the clock signal has a first pulse width in a data section where a data signal is received and transmitted, and has a second pulse width, which is different from the first pulse width, in a pause section in which a data signal is not received, wherein the clock signal includes a high value in the pause section and the data section, wherein the power extracting circuit is configured to extract power from a high value of both the first pulse width in the data section and the second pulse width in the pause section. a power extracting circuit configured to, when a clock signal is received from an image forming apparatus, extract power from a high value of the clock signal and store the extracted power in a capacitive element; and a controller configured to operate using the extracted power, characterised in that the clock signal has a first pulse width in a data section where a data signal is received and transmitted, and has a second pulse width, which is different from the first pulse width, in a pause section in which a data signal is not received, wherein the clock signal includes a high value in the pause section and the data section, wherein the power extracting circuit is configured to extract power from a high value of both the first pulse width in the data section and the second pulse width in the pause section.
A pneumatic tire having a tread portion and a belt layer, wherein the tread portion is arranged on the outer side of the belt layer in the tire radial direction, the reinforcing cord in the belt layer is composed of cords made of monofilaments in which 50/ 5 cm or more of the monofilaments are arranged in the tire width direction in the tire radial cross section of the belt layer, and the maximum load capacity of the tire WL (kg) and the weight of the tire WT (kg) satisfy the following formula 1, WT / WL ≤ 0.0140 wherein the maximum load capacity WL refers to a value calculated using the following two formulas based on tire cross-sectional width Wt (mm), the tire cross-sectional height Ht (mm), and the tire outer diameter Dt (mm) in a state where the tire is assembled to a regular rim, has an internal pressure of 250 kPa and is in no load state. V mm 3 = Dt / 2 2 − Dt / 2 − Ht 2 × π × Wt WL kg = 0.000011 × V + 100 the tread portion is arranged on the outer side of the belt layer in the tire radial direction, the reinforcing cord in the belt layer is composed of cords made of monofilaments in which 50/ 5 cm or more of the monofilaments are arranged in the tire width direction in the tire radial cross section of the belt layer, and the maximum load capacity of the tire WL (kg) and the weight of the tire WT (kg) satisfy the following formula 1, WT / WL ≤ 0.0140 wherein the maximum load capacity WL refers to a value calculated using the following two formulas based on tire cross-sectional width Wt (mm), the tire cross-sectional height Ht (mm), and the tire outer diameter Dt (mm) in a state where the tire is assembled to a regular rim, has an internal pressure of 250 kPa and is in no load state. V mm 3 = Dt / 2 2 − Dt / 2 − Ht 2 × π × Wt WL kg = 0.000011 × V + 100
Sliding door arrangement for separating an inner space from an external environment, comprising at least one movable sliding leaf, at least one immovable fixed part and a water collecting device for collecting rainwater, the sliding door arrangement comprising a water line for draining the rain water from a collecting cavity of the water collecting device under gravity, and a first end of the water line being connected to the collecting cavity and a second end of the water line having a mouth opening which opens into a region protected from wind pressure, characterised in that an overflow basin is provided, into which the second end of the water line is guided such that the mouth opening is below a water level in the overflow basin in the state of use, so that the region protected from wind pressure is formed by a water volume in the overflow basin.
A method for transferring a multimedia conference over different media for a participant of the conference, the method carried out utilizing a service control architecture (408; 660), comprising: initiating, by the service control architecture (408; 660), a multimedia conference on a first medium device of the participant using a network (304; 622), determining capabilities associated with the first medium device; identifying settings associated with the first medium device, and identifying a user setting associated with the participant; configuring the conference according to a first set of capabilities associated with the first medium device and the user setting; enabling features associated with the conference, wherein the features are supported by a first set of capabilities associated with the first medium device; receiving a request for transferring the conference to a second medium device of the participant, wherein the request is received from the first medium device or the second medium device; determining, by the service control architecture (408; 660), a second set of capabilities of the second medium device, in response to the request for transferring the conference to the second medium device; formatting the conference according to the second set of capabilities associated with the second medium device and the user setting; disabling features associated with the conference that are supported by the first set of capabilities associated with the first medium device and not supported by the second set of capabilities associated with the second medium device; enabling features associated with the conference that are supported by the second set of capabilities associated with the second medium device; and transferring the conference from the first medium device to the second medium device and continuing the conference on the second medium device. initiating, by the service control architecture (408; 660), a multimedia conference on a first medium device of the participant using a network (304; 622), determining capabilities associated with the first medium device; identifying settings associated with the first medium device, and identifying a user setting associated with the participant;
An isolated monoclonal antibody that binds to human Programmed Death 1 (PD-1), wherein the antibody comprises (a) HCDR1 comprising the amino acid sequence of SEQ ID NO: 21; (b) HCDR2 comprising the amino acid sequence of SEQ ID NO: 22; (c) HCDR3 comprising the amino acid sequence of SEQ ID NO: 23; (d) LCDR1 comprising the amino acid sequence of SEQ ID NO: 25; (e) LCDR2 comprising the amino acid sequence of SEQ ID NO: 26; and (f) LCDR3 comprising the amino acid sequence of SEQ ID NO: 27.
A method for determining a disposition of a sensor coil in a subject, the method comprising: driving an array of three or more quadruplet drive coil sets, each drive coil set including at least four discrete drive coils, the at least four discrete drive coils including a first drive coil, a second drive coil, a third drive coil, and a fourth drive coil, the first drive coil being orthogonal to the second drive coil, and the third drive coil and the fourth drive coil being orthogonal to each other but non-orthogonal to the first and second drive coils, each of the discrete drive coils being electromagnetic coils driven by drive signals, and generating respective electromagnetic wave fields; receiving one or more sensor coil response signals from a moveable sensor coil, the sensor coil generating response signals responsive to the respective electromagnetic wave fields; measuring one or more first sensor coil response signals; providing, in response to the measured one or more first sensor coil response signals, modified drive signals to one or more of the discrete drive coils, to maximize or optimize: the generated electromagnetic wave fields, or the one or more sensor coil response signals; measuring one or more second sensor coil response signals; and determining a sensor coil disposition of the moveable sensor coil in the subject relative to the quadruplet drive coil sets using the second sensor coil response signals, wherein the modified drive signals are different from the drive signals. driving an array of three or more quadruplet drive coil sets, each drive coil set including at least four discrete drive coils, the at least four discrete drive coils including a first drive coil, a second drive coil, a third drive coil, and a fourth drive coil, the first drive coil being orthogonal to the second drive coil, and the third drive coil and the fourth drive coil being orthogonal to each other but non-orthogonal to the first and second drive coils, each of the discrete drive coils being electromagnetic coils driven by drive signals, and generating respective electromagnetic wave fields; receiving one or more sensor coil response signals from a moveable sensor coil, the sensor coil generating response signals responsive to the respective electromagnetic wave fields; measuring one or more first sensor coil response signals; providing, in response to the measured one or more first sensor coil response signals, modified drive signals to one or more of the discrete drive coils, to maximize or optimize: the generated electromagnetic wave fields, or the one or more sensor coil response signals; the generated electromagnetic wave fields, or the one or more sensor coil response signals; measuring one or more second sensor coil response signals; and determining a sensor coil disposition of the moveable sensor coil in the subject relative to the quadruplet drive coil sets using the second sensor coil response signals, wherein the modified drive signals are different from the drive signals.
A wireless communication method for a user equipment, UE, comprising: receiving Channel State Information Reference Signals, CSI-RSs, transmitted from a base station, BS, using 24 antenna ports, APs, or 32 APs, wherein a first CSI-RS configuration for the APs is configured by aggregating a predetermined number of second CSI-RS configurations, wherein a number of APs per each of the second CSI-RS configurations is 2, 4, or 8, wherein the CSI-RSs are received with a predetermined CSI-RS density, wherein the predetermined CSI-RS density is defined as resource elements, REs, mapped to the CSI-RSs of each of the APs per resource block, RB, wherein a value of the predetermined CSI-RS density is 0.5, and wherein the predetermined CSI-RS density is received from the BS using Radio Resource Control, RRC, signaling. receiving Channel State Information Reference Signals, CSI-RSs, transmitted from a base station, BS, using 24 antenna ports, APs, or 32 APs, wherein a first CSI-RS configuration for the APs is configured by aggregating a predetermined number of second CSI-RS configurations, wherein a number of APs per each of the second CSI-RS configurations is 2, 4, or 8, wherein the CSI-RSs are received with a predetermined CSI-RS density, wherein the predetermined CSI-RS density is defined as resource elements, REs, mapped to the CSI-RSs of each of the APs per resource block, RB, wherein a value of the predetermined CSI-RS density is 0.5, and wherein the predetermined CSI-RS density is received from the BS using Radio Resource Control, RRC, signaling.
A thiazole derivative represented by any one of the following formulas,,,,,,,,,,,,,,,,,,,,,,,, and: or a pharmaceutically acceptable salt thereof, for use in treating and/or preventing hypersomnia and/or a sleep disorder accompanying daytime sleepiness.