mhurhangee/ep-ind-claims huggingface dataset:
A high-strength aluminum-based alloy containing zinc, magnesium, calcium, iron, titanium, and at least one element from the group consisting of silicon, cerium and nickel, zirconium and scandium, with the following concentrations of components in the alloy, wt.%: Zinc (Zn): 5-8; Magnesium (Mg): 1.5-2.1; Calcium (Ca): 0.10-1.9; Iron (Fe): 0.08-0.5; Titanium (Ti): 0.01-0.15; Silicon (Si): 0.08-0.9; Nickel (Ni): 0.2-0.4; Cerium (Ce): 0.2-0.4; Zirconium (Zr): 0.08-0.15; Scandium (Sc): 0.08-0.15; Aluminum (Al): the remainder; with the zinc content being at least 4 wt.% in the aluminum solution and in secondary separations.
A contactless communication medium, comprising: a first substrate, a second substrate, an antenna formed on the second substrate, and an IC module connected to the antenna; wherein: the IC module has at least a lead frame, an IC chip mounted on the lead frame, and a mold part for sealing the IC chip; and the first substrate has an opening for exposing the mold part, characterized in that the second substrate has a hole or recessed part for accommodating at least the mold part, the hole or recessed part having an area size larger than the mold part; a sealing member having an insulating layer and an adhesive layer in a stacked manner is located so as to cover the mold part, the sealing member being bonded to the mold part via the adhesive layer; and where the sealing member has a transverse width x and a longitudinal width y, the hole or recessed part of the second substrate has a transverse width a and a longitudinal width b, and the first substrate has a thickness of d, at least one of the following expressions: x < a + 2 ⁢ d and y < b + 2 ⁢ d is fulfilled. the IC module has at least a lead frame, an IC chip mounted on the lead frame, and a mold part for sealing the IC chip; and the first substrate has an opening for exposing the mold part, characterized in that the second substrate has a hole or recessed part for accommodating at least the mold part, the hole or recessed part having an area size larger than the mold part; a sealing member having an insulating layer and an adhesive layer in a stacked manner is located so as to cover the mold part, the sealing member being bonded to the mold part via the adhesive layer; and where the sealing member has a transverse width x and a longitudinal width y, the hole or recessed part of the second substrate has a transverse width a and a longitudinal width b, and the first substrate has a thickness of d, at least one of the following expressions: x < a + 2 ⁢ d and y < b + 2 ⁢ d is fulfilled.
A lubiprostone crystal, wherein the X-ray powder diffraction pattern of said crystal comprises characteristic peaks obtained using Cu radiation measured at the following 2θ reflection angles: 14.6±0.2°, 17.0±0.2° and 19.6±0.2°.
Method for operating a first sub-process with an educt flow within an overall process, - in which it is provided that the amount of steam must be reduced before or during the first sub-process, - as well as a gas turbine or a shift system as a second sub-process, which requires a product flow containing steam, - in which an educt flow is led into the first sub-process and a product flow is led out of the first sub-process and supplied to the second sub-process, characterised in that - before entering into the sub-process the educt flow with a steam partial pressure of p 1 is supplied to the retentate side of a membrane module as feed and leaves this with a reduced steam partial pressure p 1 -Δp 1 as retentate and then is supplied to the first sub-process, and - the product flow leaving the first sub-process with a steam partial pressure p 2 is supplied to the permeate side of the membrane module and leaves this membrane module with an increased steam partial pressure of p 2 + Δp 2 as permeate and then is supplied to the gas turbine or the shift system to the second sub-process, - in which because of a partial pressure fall for H 2 0 of at least 10 hPa in the membrane module steam from the educt flow on the retentate side is led through a steam selective membrane directly to the product flow on the permeate side. - in which it is provided that the amount of steam must be reduced before or during the first sub-process, - as well as a gas turbine or a shift system as a second sub-process, which requires a product flow containing steam, - in which an educt flow is led into the first sub-process and a product flow is led out of the first sub-process and supplied to the second sub-process, - before entering into the sub-process the educt flow with a steam partial pressure of p 1 is supplied to the retentate side of a membrane module as feed and leaves this with a reduced steam partial pressure p 1 -Δp 1 as retentate and then is supplied to the first sub-process, and - the product flow leaving the first sub-process with a steam partial pressure p 2 is supplied to the permeate side of the membrane module and leaves this membrane module with an increased steam partial pressure of p 2 + Δp 2 as permeate and then is supplied to the gas turbine or the shift system to the second sub-process, - in which because of a partial pressure fall for H 2 0 of at least 10 hPa in the membrane module steam from the educt flow on the retentate side is led through a steam selective membrane directly to the product flow on the permeate side.
A system configured to predict gastrointestinal impairment, the system comprising: an audio data collection device (76, 80) configured to collect audio data wherein the audio data comprises intestinal sounds collected from a patient after a surgical procedure, a computer device configured to receive and process the audio data, wherein the audio data is obtained before clinical signs and symptoms of a gastrointestinal impairment develop, wherein the computer device is configured to compare the processed audio data to identified spectral events being defined by predefined parameters and predictive of subsequent gastrointestinal impairment, wherein the predefined parameters include: i) frequency of the predefined spectral event and the frequency is in the range of approximately 900 to 20,000 Hertz; ii) duration of the predefined spectral event and the duration is in the range of approximately 5 to 600 milliseconds; iii) minimum separation in time of the predefined spectral event from other spectral events and the minimum separation in time is approximately 20 milliseconds; iv) signal-to-noise ratio occupancy that is greater than about 70%; v) signal-to-noise ratio threshold of approximately 10 decibels; vii) noise power estimation parameters including a block size of 1198 milliseconds, a hop size of 600 and a percentile of 20%; wherein the intestinal sounds are collected on the first post-operative day; and wherein the computer device is further configured to predict the likelihood of subsequent gastrointestinal impairment based on the comparison of the processed audio data to the identified spectral events. an audio data collection device (76, 80) configured to collect audio data wherein the audio data comprises intestinal sounds collected from a patient after a surgical procedure, a computer device configured to receive and process the audio data, wherein the audio data is obtained before clinical signs and symptoms of a gastrointestinal impairment develop, wherein the computer device is configured to compare the processed audio data to identified spectral events being defined by predefined parameters and predictive of subsequent gastrointestinal impairment, wherein the predefined parameters include: i) frequency of the predefined spectral event and the frequency is in the range of approximately 900 to 20,000 Hertz; ii) duration of the predefined spectral event and the duration is in the range of approximately 5 to 600 milliseconds; iii) minimum separation in time of the predefined spectral event from other spectral events and the minimum separation in time is approximately 20 milliseconds; iv) signal-to-noise ratio occupancy that is greater than about 70%; v) signal-to-noise ratio threshold of approximately 10 decibels; vii) noise power estimation parameters including a block size of 1198 milliseconds, a hop size of 600 and a percentile of 20%; wherein the intestinal sounds are collected on the first post-operative day; and wherein the computer device is further configured to predict the likelihood of subsequent gastrointestinal impairment based on the comparison of the processed audio data to the identified spectral events.
An apparatus, comprising: one or more execution units each comprising a plurality of pipeline units; a fetch unit configured to fetch multiple multi-part instructions from an instruction stream; a plurality of address generator units; and decode circuitry configured to decode sub-instructions included in one of the multi-part instructions, wherein the sub-instructions are associated with different threads encoded in the instruction stream; characterized in that the apparatus is configured to independently control different ones of the address generator units, based on sub-instructions included in at least one of the multi-part instructions, to generate distinct source addresses for different threads; wherein different ones of the plurality of pipeline units are configured to execute sub-instructions included in the at least one of the multi-part instructions associated with different threads according to respective source addresses; and wherein the instruction stream was generated by a compiler configured to encode the different threads of sub-instructions into the instruction stream. one or more execution units each comprising a plurality of pipeline units; a fetch unit configured to fetch multiple multi-part instructions from an instruction stream; a plurality of address generator units; and decode circuitry configured to decode sub-instructions included in one of the multi-part instructions, wherein the sub-instructions are associated with different threads encoded in the instruction stream; characterized in that the apparatus is configured to independently control different ones of the address generator units, based on sub-instructions included in at least one of the multi-part instructions, to generate distinct source addresses for different threads; wherein different ones of the plurality of pipeline units are configured to execute sub-instructions included in the at least one of the multi-part instructions associated with different threads according to respective source addresses; and wherein the instruction stream was generated by a compiler configured to encode the different threads of sub-instructions into the instruction stream.
Ophthalmological device for processing eye tissue by means of femtosecond laser pulses comprising: a projection optical unit designed for the focused projection of the femtosecond laser pulses into the eye tissue, a first beam-deffecting scanner system, disposed upstream of the projection optical unit, designed for scanning the eye tissue with the femtosecond laser pulses along a processing line (s), a second beam-deflecting scanner system disposed upstream of the first scanner system, designed for scanning the eye tissue with the femtosecond laser pulses on a scanning curve (f) superimposed on the processing line (s), with a scanning speed that is a multiple of the scanning speed of the first scanner system, comprising at least one deflection mirror and a first scanning axis and a second scanning axis, and a control module designed for controlling the deflection, (b) of the femtosecond laser pulses about the first scanning axis and the deflection of the femtosecond laser pulses about the second scanning axis in accordance with at least one from: defined curve shape, defined curve amplitude and defined curve orientation of the scanning curve (f), characterized in that the control module is designed to control, depending on the direction of the processing line(s), the excursion amplitude of the deflection (b) about the first scanning axis, and the excursion amplitude of the deflection (a) about the second scanning axis. a projection optical unit designed for the focused projection of the femtosecond laser pulses into the eye tissue, a first beam-deffecting scanner system, disposed upstream of the projection optical unit, designed for scanning the eye tissue with the femtosecond laser pulses along a processing line (s), a second beam-deflecting scanner system disposed upstream of the first scanner system, designed for scanning the eye tissue with the femtosecond laser pulses on a scanning curve (f) superimposed on the processing line (s), with a scanning speed that is a multiple of the scanning speed of the first scanner system, comprising at least one deflection mirror and a first scanning axis and a second scanning axis, and a control module designed for controlling the deflection, (b) of the femtosecond laser pulses about the first scanning axis and the deflection of the femtosecond laser pulses about the second scanning axis in accordance with at least one from: defined curve shape, defined curve amplitude and defined curve orientation of the scanning curve (f), characterized in that the control module is designed to control, depending on the direction of the processing line(s), the excursion amplitude of the deflection (b) about the first scanning axis, and the excursion amplitude of the deflection (a) about the second scanning axis.
Gate comprising at least: - a front post and a rear post which are intended to be fixed with spacing from each other in order to define together a circulation passage; - a guide rail which extends along the circulation passage substantially from one to the other of the posts (30, 31); - a door leaf which is mounted so as to slide along the posts (30, 31) between at least one opening position of the circulation passage, in which the front end thereof is located close to the rear post, and a closure position of the circulation passage, in which the front end thereof is located close to the front post, the door leaf comprising a lower beam which carries at the front end thereof first guiding means which cooperate with the guide rail, characterised in that the gate further comprises: - second guide means (80, 81) which cooperate with the lower beam and which are arranged close to the rear post; - rear support means of the door leaf arranged in a fixed manner upstream of the rear post; the door leaf being mounted so as to tilt about a horizontal axis which is orthogonal to the sliding axis thereof, the door leaf resting: - on the first guide means and the second guide means (80, 81) when the centre of gravity G thereof is located between the front post and the second guide means (80, 81), and - on the second guide means (80, 81) and on the rear support means when the centre of gravity G thereof is located between the second guide means (80, 81) and the rear support means, the door leaf thus being brought to rest on the rear support means when it is moved towards the open position thereof. - a front post and a rear post which are intended to be fixed with spacing from each other in order to define together a circulation passage; - a guide rail which extends along the circulation passage substantially from one to the other of the posts (30, 31); - a door leaf which is mounted so as to slide along the posts (30, 31) between at least one opening position of the circulation passage, in which the front end thereof is located close to the rear post, and a closure position of the circulation passage, in which the front end thereof is located close to the front post, - second guide means (80, 81) which cooperate with the lower beam and which are arranged close to the rear post; - rear support means of the door leaf arranged in a fixed manner upstream of the rear post; - on the first guide means and the second guide means (80, 81) when the centre of gravity G thereof is located between the front post and the second guide means (80, 81), and - on the second guide means (80, 81) and on the rear support means when the centre of gravity G thereof is located between the second guide means (80, 81) and the rear support means,
A method for flow control in a dual connectivity system comprising a primary base station and a secondary base station, the method being implemented at the primary base station and comprising: obtaining first communication information of the secondary base station and second communication information of the primary base station, wherein the first communication information includes at least one of load information and channel information of the secondary base station, and the second communication information includes at least one of load information and channel information of the primary base station; determining (S 102) a flow ratio for a first radio bearer based on the first communication information and the second communication information_to indicate to a user terminal how to allocate data volumes on the first radio bearer to be transmitted through the primary base station and the secondary base station respectively; and transmitting the flow ratio to said user terminal. obtaining first communication information of the secondary base station and second communication information of the primary base station, wherein the first communication information includes at least one of load information and channel information of the secondary base station, and the second communication information includes at least one of load information and channel information of the primary base station; determining (S 102) a flow ratio for a first radio bearer based on the first communication information and the second communication information_to indicate to a user terminal how to allocate data volumes on the first radio bearer to be transmitted through the primary base station and the secondary base station respectively; and transmitting the flow ratio to said user terminal.
A system for spectral domain optical coherence tomography, comprising: a light source; an image sensor; a sample arm coupled to the light source, wherein the sample arm is configured to cause light from the light source to be projected toward a sample; a first reference arm having a first path length, wherein the first reference arm is coupled to the light source and the sample arm; a second reference arm having a second path length that is longer than the first path length, wherein the second reference arm is coupled to the light source and the sample arm; a first optical coupler configured to combine light from the sample arm and light from the first reference arm; a second optical coupler configured to combine light from the sample arm and light from the second reference arm; and an optical switch comprising: a first port (Port 1) coupled to an output of the first optical coupler, a second port (Port 2) coupled to an output of the second optical coupler via a length of optical waveguide that induces a delay at least equal to an acquisition time of the image sensor, and a third port (Port 3) coupled to the image sensor, wherein the optical switch is configured to selectively provide light from one of the first port and the second port and block light from the other of the first port and the second port. a light source; an image sensor; a sample arm coupled to the light source, wherein the sample arm is configured to cause light from the light source to be projected toward a sample; a first reference arm having a first path length, wherein the first reference arm is coupled to the light source and the sample arm; a second reference arm having a second path length that is longer than the first path length, wherein the second reference arm is coupled to the light source and the sample arm; a first optical coupler configured to combine light from the sample arm and light from the first reference arm; a second optical coupler configured to combine light from the sample arm and light from the second reference arm; and an optical switch comprising: a first port (Port 1) coupled to an output of the first optical coupler, a second port (Port 2) coupled to an output of the second optical coupler via a length of optical waveguide that induces a delay at least equal to an acquisition time of the image sensor, and a third port (Port 3) coupled to the image sensor, wherein the optical switch is configured to selectively provide light from one of the first port and the second port and block light from the other of the first port and the second port. a first port (Port 1) coupled to an output of the first optical coupler, a second port (Port 2) coupled to an output of the second optical coupler via a length of optical waveguide that induces a delay at least equal to an acquisition time of the image sensor, and a third port (Port 3) coupled to the image sensor, wherein the optical switch is configured to selectively provide light from one of the first port and the second port and block light from the other of the first port and the second port.
A communication method, comprising: receiving (201, 301, 401, 501, 601), by a network repository function (1200, 1300) a token request from a service consumer (2200, 2300); and sending (202, 403, 603), by the network repository function (1200, 1300), a token request response to the service consumer (2200, 2300), wherein the token request response carries a token, characterized in that the token comprises a network function set identifier of a service producer (1600, 1700) and is a token for a network function set of the service producer. receiving (201, 301, 401, 501, 601), by a network repository function (1200, 1300) a token request from a service consumer (2200, 2300); and sending (202, 403, 603), by the network repository function (1200, 1300), a token request response to the service consumer (2200, 2300), wherein the token request response carries a token, characterized in that the token comprises a network function set identifier of a service producer (1600, 1700) and is a token for a network function set of the service producer.