mhurhangee/ep-ind-claims huggingface dataset:
A system comprising: a resonant sensor configured to be in contact with oil within an engine of a vehicle system, the sensor including electrodes and a sensing region circuit that is configured to generate electrical stimuli at different times during an operational life of the engine, each electrical stimulus having multiple different frequencies that are applied to the oil via the electrodes; and one or more processors configured to receive multiple electrical signals from the resonant sensor, the electrical signals representative of impedance responses of the oil to the electrical stimuli, the one or more processors configured to analyze the impedance responses and determine a concentration of a polar analyte in the oil at each of the different times based on the impedance responses, the one or more processors further configured to calculate a degradation value for the engine based on the concentration of the polar analyte in the oil, wherein, responsive to the degradation value exceeding a designated degradation threshold, the one or more processors are configured to at least one of schedule maintenance for the vehicle system, provide an alert to schedule maintenance for the vehicle system, or prohibit operation of the vehicle system until maintenance is performed on the vehicle system, further wherein the one or more processors are configured to calculate the degradation value as an integral of the concentration of the polar analyte in the oil over a time period in which the electrical stimuli are applied to the oil. a resonant sensor configured to be in contact with oil within an engine of a vehicle system, the sensor including electrodes and a sensing region circuit that is configured to generate electrical stimuli at different times during an operational life of the engine, each electrical stimulus having multiple different frequencies that are applied to the oil via the electrodes; and one or more processors configured to receive multiple electrical signals from the resonant sensor, the electrical signals representative of impedance responses of the oil to the electrical stimuli, the one or more processors configured to analyze the impedance responses and determine a concentration of a polar analyte in the oil at each of the different times based on the impedance responses, the one or more processors further configured to calculate a degradation value for the engine based on the concentration of the polar analyte in the oil, wherein, responsive to the degradation value exceeding a designated degradation threshold, the one or more processors are configured to at least one of schedule maintenance for the vehicle system, provide an alert to schedule maintenance for the vehicle system, or prohibit operation of the vehicle system until maintenance is performed on the vehicle system, further wherein the one or more processors are configured to calculate the degradation value as an integral of the concentration of the polar analyte in the oil over a time period in which the electrical stimuli are applied to the oil.
A system for generating a pseudo-CT prediction model, comprising: a database configured to store training data comprising multi-channel Magnetic Resonance data and Computerized Tomography data of a plurality of training subjects, the training data including, for each training subject, a set of multiple MR images and at least one CT image, at least two of the sets of multiple MR images having different sequence parameters; a processor communicatively coupled to the database for accessing information stored in the database; a memory communicatively coupled to the processor, the memory storing instructions that, when executed by the processor, configures the processor to perform operations comprising: accessing the database to retrieve the training data including the set of multiple MR images and the at least one CT image for each of the plurality of training subjects; for each training subject: determining at least one tissue parameter map based on the multiple MR images; and obtaining CT values based on the at least one CT image; and generating the pseudo-CT prediction model based on the tissue parameter maps and the CT values of the plurality of training subjects. a database configured to store training data comprising multi-channel Magnetic Resonance data and Computerized Tomography data of a plurality of training subjects, the training data including, for each training subject, a set of multiple MR images and at least one CT image, at least two of the sets of multiple MR images having different sequence parameters; a processor communicatively coupled to the database for accessing information stored in the database; a memory communicatively coupled to the processor, the memory storing instructions that, when executed by the processor, configures the processor to perform operations comprising: accessing the database to retrieve the training data including the set of multiple MR images and the at least one CT image for each of the plurality of training subjects; for each training subject: determining at least one tissue parameter map based on the multiple MR images; and obtaining CT values based on the at least one CT image; and accessing the database to retrieve the training data including the set of multiple MR images and the at least one CT image for each of the plurality of training subjects; for each training subject: determining at least one tissue parameter map based on the multiple MR images; and obtaining CT values based on the at least one CT image; and determining at least one tissue parameter map based on the multiple MR images; and obtaining CT values based on the at least one CT image; and generating the pseudo-CT prediction model based on the tissue parameter maps and the CT values of the plurality of training subjects.
A D-amino acid inducible gene expression system operable in a transgenic fungal cell comprising a nucleic acid construct comprising a D-amino acid inducible promoter operably linked to a heterologous polynucleotide, wherein the promoter is selected from the group consisting of: (a) a promoter having at least 82% identity to the nucleotide sequence set forth in SEQ ID NO:94; (b) a promoter having at least 82% identity to the nucleotide sequence set forth in SEQ ID NO:95; (c) a promoter having at least 82% identity to the nucleotide sequence set forth in SEQ ID NO:96; (d) a promoter having at least 82% identity to the nucleotide sequence set forth in SEQ ID NO:97; and (e) a promoter having at least 82% identity to the nucleotide sequence set forth in SEQ ID NO:5 and wherein the nucleic acid construct contains a nucleotide sequence having at least 75% identity to the nucleotide sequence set forth in SEQ ID NO:7. (a) a promoter having at least 82% identity to the nucleotide sequence set forth in SEQ ID NO:94; (b) a promoter having at least 82% identity to the nucleotide sequence set forth in SEQ ID NO:95; (c) a promoter having at least 82% identity to the nucleotide sequence set forth in SEQ ID NO:96; (d) a promoter having at least 82% identity to the nucleotide sequence set forth in SEQ ID NO:97; and (e) a promoter having at least 82% identity to the nucleotide sequence set forth in SEQ ID NO:5
A personal appliance comprising: a. a handle comprising an implement connecting structure; b. an implement connected to the implement connecting structure; c. an implement displacement sensor positioned in the handle, the implement displacement sensor measuring a displacement of the implement relative to a fixed position of the handle; d. a power source positioned in the handle; e. an acceleration sensor positioned in the handle; f. an angular velocity sensor positioned in the handle; and g. a communication device positioned in the handle. a. a handle comprising an implement connecting structure; b. an implement connected to the implement connecting structure; c. an implement displacement sensor positioned in the handle, the implement displacement sensor measuring a displacement of the implement relative to a fixed position of the handle; d. a power source positioned in the handle; e. an acceleration sensor positioned in the handle; f. an angular velocity sensor positioned in the handle; and g. a communication device positioned in the handle.
A steam using facility management method characterized by the steps of: in a steam using facility in which a generated condensate amount changes in association with a change in an environmental state value accompanying a change in a heat discharge state of various sections of the steam using facility, based on a correlation between the environmental state value and the generated condensate amount, setting an environmental state value when the generated condensate amount becomes a set alarm amount exceeding a condensate discharging capacity of a steam trap as an alarm state value; and issuing an alarm when an actual environmental state value measured by a measuring instrument changes in an increasing direction of the generated condensate amount to reach the set alarm state value. in a steam using facility in which a generated condensate amount changes in association with a change in an environmental state value accompanying a change in a heat discharge state of various sections of the steam using facility, based on a correlation between the environmental state value and the generated condensate amount, setting an environmental state value when the generated condensate amount becomes a set alarm amount exceeding a condensate discharging capacity of a steam trap as an alarm state value; and issuing an alarm when an actual environmental state value measured by a measuring instrument changes in an increasing direction of the generated condensate amount to reach the set alarm state value.
An x-ray window (10, 40a, 40c, 90) comprising: a support structure including a support frame (11 F) encircling an aperture and support ribs (11 R) extending across the aperture with gaps between the support ribs (11 R); and a boron layer spanning the aperture of the support structure, the boron layer comprising ≥ 60 weight percent boron, wherein the support ribs (11 R) are sandwiched between the boron layer and boron ribs, the boron ribs comprising at least 60 weight percent boron, characterized in that: the boron ribs are aligned with the support ribs (11 R); and a percent thickness difference between the boron layer and the boron ribs is ≤ 50%, where the percent thickness difference equals a difference in thickness between the boron layer and the boron ribs divided by a thickness of the boron layer. a support structure including a support frame (11 F) encircling an aperture and support ribs (11 R) extending across the aperture with gaps between the support ribs (11 R); and a boron layer spanning the aperture of the support structure, the boron layer comprising ≥ 60 weight percent boron, wherein the support ribs (11 R) are sandwiched between the boron layer and boron ribs, the boron ribs comprising at least 60 weight percent boron, characterized in that: the boron ribs are aligned with the support ribs (11 R); and a percent thickness difference between the boron layer and the boron ribs is ≤ 50%, where the percent thickness difference equals a difference in thickness between the boron layer and the boron ribs divided by a thickness of the boron layer. the boron ribs are aligned with the support ribs (11 R); and a percent thickness difference between the boron layer and the boron ribs is ≤ 50%, where the percent thickness difference equals a difference in thickness between the boron layer and the boron ribs divided by a thickness of the boron layer.
An Intelligent Pig, IP, for monitoring the internal surface of a tube comprising an electronics module sealed into an outer casing comprising a transmitter and a receiver and provided with one or more flexible sleeves which are configured to extend from the body of the IP to the interior wall of the tube when the IP is in a tube and which is capable of being driven through the tube by fluid pressure characterized in that at least one of the sleeves is a tractor sleeve provided towards the front of the IP and which is a flexible tapered sleeve configured to capture the driving fluid so that the IP may be driven along the tube, the IP being further provided with a rear petal sleeve which is configured to extend from the body of the IP to the interior wall of the tube to allow the driving fluid to fill the space between the central sections of the IP and the interior wall of the tube whereby the transmitter is configured to transmit an acoustic signal from the IP which travels through said fluid and echoes from a hard surface of said interior wall.
A drilling tool comprising - a drill bit having a male thread portion formed on an outer circumferential surface thereof, - a depth-adjustable stopper which is provided to be moved in an axial direction of the drill bit along said male thread portion to be able to adjust a depth of a hole drilled, - a spring configured to prevent the depth-adjustable stopper from being shaken or pushed back due to a gap of the male thread portion; and - a fastener body fastened to the drill bit while spaced apart from the depth-adjustable stopper to support a tension of the spring, the depth-adjustable stopper comprising: a rotational structure body including a female thread portion formed on an inner circumferential surface thereof to be engaged with the male thread portion of the drill bit and moving in the axial direction along the male thread portion of the drill bit; an adjusting structure body including a through hole to allow the rotational structure body to fit thereinto and configured to freely rotate from the rotational structure body to face a material to be processed; and a bearing provided between the adjusting structure body and the rotational structure body, wherein when the rotational structure body rotates along with the drill bit, the adjusting structure body supports the material without receiving any influence from the rotation by the bearing. - a drill bit having a male thread portion formed on an outer circumferential surface thereof, - a depth-adjustable stopper which is provided to be moved in an axial direction of the drill bit along said male thread portion to be able to adjust a depth of a hole drilled, - a spring configured to prevent the depth-adjustable stopper from being shaken or pushed back due to a gap of the male thread portion; and - a fastener body fastened to the drill bit while spaced apart from the depth-adjustable stopper to support a tension of the spring, a rotational structure body including a female thread portion formed on an inner circumferential surface thereof to be engaged with the male thread portion of the drill bit and moving in the axial direction along the male thread portion of the drill bit; an adjusting structure body including a through hole to allow the rotational structure body to fit thereinto and configured to freely rotate from the rotational structure body to face a material to be processed; and a bearing provided between the adjusting structure body and the rotational structure body, wherein when the rotational structure body rotates along with the drill bit, the adjusting structure body supports the material without receiving any influence from the rotation by the bearing.
Head-up display for vehicles which uses a transparent surface in the vehicle in the viewing direction of a viewer as a display region for displaying information by means of an imaging unit, wherein imaging optics are arranged between the imaging unit and the display region, with adaptation means with which the displaying of information can be adapted to various positions of the viewer's eyes, with a camera for recording the viewer's head and with an image-processing unit for evaluating recordings from the camera, wherein projection means are provided for imaging a visually perceptible mark in the direction of the viewer's head, and in that the image-processing unit is designed to evaluate the mark on the basis of a recording of the camera, characterized in that the projection means are designed to generate a visually perceptible mark with infra-red light which is generated by an infra-red light-emitting diode, and in that arranged downstream of the infra-red light-emitting diode is a diaphragm which determines the geometric shape of an individual coherent mark in such a way that the projected mark at least partially forms a border symmetrically about both of the viewer's eyes.
A method, in a home base station, for supporting carrier aggregation, the home base station is a femto cell, wherein the method comprises: transmitting, from the home base station, two carrier signals on different frequencies to one or more user devices that support multi-carrier operation; broadcasting (410, 510), from the home base station, different global cell identifiers corresponding to different cells and performing a S1 or X2 setup using an information element, IE, indicating that the home base station is supporting carrier aggregation wherein the home base station supporting carrier aggregation adopts same E-UTRAN Cell Global Identifier,E-CGI, addressing scheme used by normal eNBs with a common eNB-ID and different cell-IDs for each cell or carrier; wherein the method further comprises: sending and receiving (420, 520) control messages for both of the two carrier signals over a single control-plane interface between the home base station and either a core network node or a home base station gateway, with a single S1 or luh connection in the control plane interface and wherein the home base station gateway is a wireless network node that connects the home base station to the core network. transmitting, from the home base station, two carrier signals on different frequencies to one or more user devices that support multi-carrier operation; broadcasting (410, 510), from the home base station, different global cell identifiers corresponding to different cells and performing a S1 or X2 setup using an information element, IE, indicating that the home base station is supporting carrier aggregation wherein the home base station supporting carrier aggregation adopts same E-UTRAN Cell Global Identifier,E-CGI, addressing scheme used by normal eNBs with a common eNB-ID and different cell-IDs for each cell or carrier; wherein the method further comprises: sending and receiving (420, 520) control messages for both of the two carrier signals over a single control-plane interface between the home base station and either a core network node or a home base station gateway, with a single S1 or luh connection in the control plane interface and wherein the home base station gateway is a wireless network node that connects the home base station to the core network.
A method of discarding logged measurements of a user equipment in a wireless communication system, the method comprising: receiving, by a user equipment in a Radio Resource Control connected mode from a base station, a Minimization of Drive Tests configuration; upon receiving the MDT configuration, starting a validity timer; logging, by the user equipment in an RRC idle mode, measurements based on the MDT configuration to collect logged measurements while the validity timer is running; characterised in that: when the validity timer is expired, discarding the MDT configuration and starting a conservation timer; and when the conservation timer is expired, discarding the logged measurements. receiving, by a user equipment in a Radio Resource Control connected mode from a base station, a Minimization of Drive Tests configuration; upon receiving the MDT configuration, starting a validity timer; logging, by the user equipment in an RRC idle mode, measurements based on the MDT configuration to collect logged measurements while the validity timer is running; when the validity timer is expired, discarding the MDT configuration and starting a conservation timer; and when the conservation timer is expired, discarding the logged measurements.
A unit for treating containers, comprising at least one treatment station with a bath for holding a liquid treating medium, said bath being defined by non-deformable walls and comprising at least one substantially U-shaped recess for receiving and lodging a first driving wheel of transport means adapted to advance said containers to be treated along a container path across said bath; said U-shaped recess comprising a substantially semicircular portion having diameter D SC; said transport means comprising at least a second driving wheel arranged downstream of said first driving wheel with respect to a direction of advancement of said containers along said container path; characterised in that said at least one first driving wheel has a diameter D B which is substantially equal to the diameter D SC of said semicircular portion of said U-shaped recess and is smaller than the diameter D A of said at least one second driving wheel; said at least one first driving wheel being borne by a driving shaft having a diameter d B smaller than the diameter d A of a driving shaft of said at least one second driving wheel; the difference (D SC - d B) being substantially equal to the difference (D A - d A) and to twice the height of said containers to be treated.
An alloy for medical use comprising an Au-Pt alloy, wherein the alloy contains 34 to 36 mass% of Pt with the balance being Au, and has an α-phase single structure in which a ratio of a peak intensity of a Pt plane to a peak intensity of an Au plane (X/Y) is 0.01 or less in an X-ray diffraction analysis, and has a volume magnetic susceptibility from -13 ppm to -5 ppm.
A user equipment, UE, (104, 302) comprising: a memory; at least one transceiver; and at least one processor communicatively coupled to the memory and the at least one transceiver, the at least one processor configured to: cause the at least one transceiver to transmit, at a first time during a measurement window for positioning purposes, a first uplink reference signal in accordance with a first timing adjustment parameter, wherein the first time is offset from a downlink frame time of a base station (102, 304) by an amount of the first timing adjustment parameter; and characterised in that the processor is further configured to cause the at least one transceiver to transmit a report indicating that the first timing adjustment parameter has been applied to at least the first uplink reference signal. a memory; at least one transceiver; and at least one processor communicatively coupled to the memory and the at least one transceiver, the at least one processor configured to: cause the at least one transceiver to transmit, at a first time during a measurement window for positioning purposes, a first uplink reference signal in accordance with a first timing adjustment parameter, wherein the first time is offset from a downlink frame time of a base station (102, 304) by an amount of the first timing adjustment parameter; and characterised in that the processor is further configured to cause the at least one transceiver to transmit a report indicating that the first timing adjustment parameter has been applied to at least the first uplink reference signal.
Non-therapeutic use of an agent for the improvement of the brain function in a healthy aged person, the agent comprising: 12.5 to 20 parts by weight of a protein; 30 to 50 parts by weight of a medium-chain fatty acid triglyceride as a lipid; and 7 to 12 parts by weight of a carbohydrate, per 100 parts by weight, wherein the protein is at least one kind of protein selected from the group consisting of casein, a milk protein concentrate, a whey protein concentrate, a whey protein isolate, α-lactalbumin, β-lactoglobulin and lactoferrin, and the carbohydrate is at least one kind of carbohydrate selected from the group consisting of lactose, palatinose and trehalulose. wherein the protein is at least one kind of protein selected from the group consisting of casein, a milk protein concentrate, a whey protein concentrate, a whey protein isolate, α-lactalbumin, β-lactoglobulin and lactoferrin, and the carbohydrate is at least one kind of carbohydrate selected from the group consisting of lactose, palatinose and trehalulose.