mhurhangee/ep-ind-claims huggingface dataset:
Semiconductor device, comprising: - a cap body, - an environmental sensor, - a substrate body, - a first volume of gas, - a trench extending through at least a part of the substrate body in a vertical direction (z), the trench being connected to the first volume of gas and the vertical direction (z) being perpendicular to lateral directions (x) that are parallel to the main plane of extension of the semiconductor device, wherein - the trench is arranged next to or around the environmental sensor in lateral direction (x), - the environmental sensor is in direct contact with the first volume of gas, and - the environmental sensor and the first volume of gas are arranged between the cap body and the substrate 25 body in vertical direction (z), characterised in that the semiconductor device further comprises a channel extending in a lateral direction (x) and connecting the first volume of gas and the trench with the environment of the semiconductor device such that the channel is permeable for gases. - a cap body, - an environmental sensor, - a substrate body, - a first volume of gas, - a trench extending through at least a part of the substrate body in a vertical direction (z), the trench being connected to the first volume of gas and the vertical direction (z) being perpendicular to lateral directions (x) that are parallel to the main plane of extension of the semiconductor device, wherein - the trench is arranged next to or around the environmental sensor in lateral direction (x), - the environmental sensor is in direct contact with the first volume of gas, and - the environmental sensor and the first volume of gas are arranged between the cap body and the substrate 25 body in vertical direction (z), characterised in that the semiconductor device further comprises a channel extending in a lateral direction (x) and connecting the first volume of gas and the trench with the environment of the semiconductor device such that the channel is permeable for gases.
An endoscope comprising: an observation optical system provided in a distal end of an insertion portion, the observation optical system including a plurality of lenses and having a function that allows a magnified observation close to a subject; and a plurality of illumination optical systems provided in the distal end of the insertion portion, the plurality of illumination optical systems each including a plurality of lenses and illuminating the subject with illuminating light, wherein in a close observation in which a distance between a distal end face of the insertion portion and the subject is an arbitrary distance of from 1.5 mm to 2.5 mm, where I TM is a maximum brightness within an observation view field angle and I TC is a center brightness, and in a normal observation in which the distance between the distal end face of the insertion portion and the subject is 50 mm, where I WC is a center brightness and I WS is a brightness at a position of 80% of a maximum view angle, the following conditional expressions are satisfied: 0.3 < I TC / I TM < 0.45 0.15 < I WS / I WC < 0.25 and 0.3 < f L f T / φ L I H < 0.6 where f L is a focal length of each of the entire illumination optical systems, f T is a focal length of the entire observation optical system in a maximum magnification, φ L is an outer diameter of a lens that is farthest on an object side of each illumination optical system, and I H is a maximum image height of the observation optical system. an observation optical system provided in a distal end of an insertion portion, the observation optical system including a plurality of lenses and having a function that allows a magnified observation close to a subject; and a plurality of illumination optical systems provided in the distal end of the insertion portion, the plurality of illumination optical systems each including a plurality of lenses and illuminating the subject with illuminating light, wherein in a close observation in which a distance between a distal end face of the insertion portion and the subject is an arbitrary distance of from 1.5 mm to 2.5 mm, where I TM is a maximum brightness within an observation view field angle and I TC is a center brightness, and in a normal observation in which the distance between the distal end face of the insertion portion and the subject is 50 mm, where I WC is a center brightness and I WS is a brightness at a position of 80% of a maximum view angle, the following conditional expressions are satisfied: 0.3 < I TC / I TM < 0.45 0.15 < I WS / I WC < 0.25 and 0.3 < f L f T / φ L I H < 0.6 where f L is a focal length of each of the entire illumination optical systems, f T is a focal length of the entire observation optical system in a maximum magnification, φ L is an outer diameter of a lens that is farthest on an object side of each illumination optical system, and I H is a maximum image height of the observation optical system.
A method comprising training a first machine learning inference model based on a first training data set, computing a first reference performance of said first machine learning inference model based on said first machine learning inference model and said first training data set, transmitting, to a model consumer, a first machine learning model message including said first machine learning inference model and information on said first reference performance of said first machine learning inference model, upon determining unsuitability of said first machine learning inference model for a current network context of the model consumer based on said information, retraining the first machine learning inference model based on a second training data set, and transmitting, to the model consumer, a second machine learning model message including said retrained first machine learning inference model. training a first machine learning inference model based on a first training data set, computing a first reference performance of said first machine learning inference model based on said first machine learning inference model and said first training data set, transmitting, to a model consumer, a first machine learning model message including said first machine learning inference model and information on said first reference performance of said first machine learning inference model, upon determining unsuitability of said first machine learning inference model for a current network context of the model consumer based on said information, retraining the first machine learning inference model based on a second training data set, and transmitting, to the model consumer, a second machine learning model message including said retrained first machine learning inference model.
A boiler suitable for use in a steam cleaning apparatus comprising: a body; a water cooling circuit having a water inlet and a steam outlet and the water cooling circuit comprises a second coiled portion; a heating element having a first terminal and a second terminal and the heating element comprises a first coiled portion; wherein one of the heating element and the water cooling circuit are nested inside the other of the heating element and the water cooling circuit; and the first coiled portion of the heating element and the second coiled portion of the water cooling circuit are positioned around one of the first terminal, the second terminal, the water inlet and the steam outlet; and characterised in that: at least the first coiled portion of the heating element and the second coiled portion of the water cooling circuit are embedded in the body; and the water cooling circuit is a hollow tube. a body; a water cooling circuit having a water inlet and a steam outlet and the water cooling circuit comprises a second coiled portion; a heating element having a first terminal and a second terminal and the heating element comprises a first coiled portion; wherein one of the heating element and the water cooling circuit are nested inside the other of the heating element and the water cooling circuit; and the first coiled portion of the heating element and the second coiled portion of the water cooling circuit are positioned around one of the first terminal, the second terminal, the water inlet and the steam outlet; and characterised in that: at least the first coiled portion of the heating element and the second coiled portion of the water cooling circuit are embedded in the body; and the water cooling circuit is a hollow tube.
A hair drying system for uniformly drying a hair addition having multiple strands, the system comprising: a dryer defining an elongated internal dying chamber, an air intake system including at least one ducted intake fan, an air exhaust system including at least one ducted exhaust fan, and an internal support assembly (170,172,174) for releasably hanging elongated hair additions, being positioned within the internal chamber between the air intake system and the air exhaust system, characterized in that the ducted intake fans are positioned in a top panel of the dryer and the ducted exhaust fans are positioned near a bottom of the internal chamber in side walls of the dryer adjacent a bottom panel of the dryer such that air flowing between the air intake and exhaust systems flows across the elongated hair additions in a substantially laminar fashion. a dryer defining an elongated internal dying chamber, an air intake system including at least one ducted intake fan, an air exhaust system including at least one ducted exhaust fan, and an internal support assembly (170,172,174) for releasably hanging elongated hair additions, being positioned within the internal chamber between the air intake system and the air exhaust system, characterized in that the ducted intake fans are positioned in a top panel of the dryer and the ducted exhaust fans are positioned near a bottom of the internal chamber in side walls of the dryer adjacent a bottom panel of the dryer such that air flowing between the air intake and exhaust systems flows across the elongated hair additions in a substantially laminar fashion.
A system for providing negative-pressure therapy to a tissue site, the system comprising: a dressing for treating the tissue site, the dressing comprising a tissue interface having: a first surface configured to face the tissue site; a second surface opposite the first surface; a thickness extending from the first surface to the second surface a plurality of holes extending from the first surface to the second surface; and a plurality of pores, the plurality of pores having an elliptical shape and a major axis oriented perpendicular to the first surface and the second surface; a cover layer configured to be disposed over the tissue interface to create a sealed space; and a negative pressure source fluidly coupled to the sealed space; wherein the plurality of pores are configured to contract in a direction parallel to the first surface and the second surface; wherein the tissue interface comprises a felted foam. a dressing for treating the tissue site, the dressing comprising a tissue interface having: a first surface configured to face the tissue site; a second surface opposite the first surface; a thickness extending from the first surface to the second surface a plurality of holes extending from the first surface to the second surface; and a plurality of pores, the plurality of pores having an elliptical shape and a major axis oriented perpendicular to the first surface and the second surface; a first surface configured to face the tissue site; a second surface opposite the first surface; a thickness extending from the first surface to the second surface a plurality of holes extending from the first surface to the second surface; and a plurality of pores, the plurality of pores having an elliptical shape and a major axis oriented perpendicular to the first surface and the second surface; a cover layer configured to be disposed over the tissue interface to create a sealed space; and a negative pressure source fluidly coupled to the sealed space; wherein the plurality of pores are configured to contract in a direction parallel to the first surface and the second surface; wherein the tissue interface comprises a felted foam.
An apparatus comprising: a receiver configured to receive a data signal; a processor configured to identify potential signal interference in the data signal and to modify a shape of the data signal in an electrical domain; a transmitter configured to transmit the modified data signal to an optical data network; wherein the processor is further configured to filter the data signal by an analog filter; and wherein the analog filter is configured to remove a low frequency Raman cross-talk interference component. a receiver configured to receive a data signal; a processor configured to identify potential signal interference in the data signal and to modify a shape of the data signal in an electrical domain; a transmitter configured to transmit the modified data signal to an optical data network; wherein the processor is further configured to filter the data signal by an analog filter; and wherein the analog filter is configured to remove a low frequency Raman cross-talk interference component.
A method of manufacturing a liquid crystal display of the polymer stabilised alignment mode, which comprises a) providing a first substrate and a second substrate, b) depositing an alignment layer material, or a precursor thereof, on the first substrate and the second substrate, to form a first alignment layer on the first substrate and a second alignment layer on the second substrate, c) optionally curing the alignment layer material, or the precursor thereof, d) interposing an LC medium comprising a polymerisable component between the first and the second substrate, such that it is in contact with the first alignment layer and the second alignment layer, e) polymerising the polymerisable component of the LC medium between the first and second substrate, characterized in that in step b) the alignment layer material, or the precursor thereof, deposited on the first substrate contains a polymerisation inhibitor which inhibits polymerisation of the polymerisable component of the LC medium. a) providing a first substrate and a second substrate, b) depositing an alignment layer material, or a precursor thereof, on the first substrate and the second substrate, to form a first alignment layer on the first substrate and a second alignment layer on the second substrate, c) optionally curing the alignment layer material, or the precursor thereof, d) interposing an LC medium comprising a polymerisable component between the first and the second substrate, such that it is in contact with the first alignment layer and the second alignment layer, e) polymerising the polymerisable component of the LC medium between the first and second substrate,
A system for controlling a ventilation variable of a ventilation device for tracking along a target curve, comprising: at least one sensor which is adapted to detect instantaneous values for the ventilation variable; an actuator which is adapted to adjust the ventilation variable of the ventilation device; a memory in which the target curve for the ventilation variable is stored, the target curve being stored for an inspiration phase and/or for an expiration phase; and a controller which has at least a proportional term and an integral term and which is adapted to determine a control difference from the target curve and the instantaneous values for the ventilation variable, and which is adapted to control the actuator; wherein the controller is adapted to adjust a gain factor of the integral term according to at least one of the following features: (i) increasing the gain factor of the integral term when the integral of the control difference for the inspiration phase and/or the expiration phase exceeds a predetermined integral threshold value; (ii) reducing the gain factor of the integral term when a number of zero crossings (41, 42, 43, 44, 45, 46) of the control difference during the inspiration phase and/or during the expiration phase exceeds a predetermined zero-crossing threshold value. at least one sensor which is adapted to detect instantaneous values for the ventilation variable; an actuator which is adapted to adjust the ventilation variable of the ventilation device; a memory in which the target curve for the ventilation variable is stored, the target curve being stored for an inspiration phase and/or for an expiration phase; and a controller which has at least a proportional term and an integral term and which is adapted to determine a control difference from the target curve and the instantaneous values for the ventilation variable, and which is adapted to control the actuator; wherein the controller is adapted to adjust a gain factor of the integral term according to at least one of the following features: (i) increasing the gain factor of the integral term when the integral of the control difference for the inspiration phase and/or the expiration phase exceeds a predetermined integral threshold value; (ii) reducing the gain factor of the integral term when a number of zero crossings (41, 42, 43, 44, 45, 46) of the control difference during the inspiration phase and/or during the expiration phase exceeds a predetermined zero-crossing threshold value. (i) increasing the gain factor of the integral term when the integral of the control difference for the inspiration phase and/or the expiration phase exceeds a predetermined integral threshold value; (ii) reducing the gain factor of the integral term when a number of zero crossings (41, 42, 43, 44, 45, 46) of the control difference during the inspiration phase and/or during the expiration phase exceeds a predetermined zero-crossing threshold value.
An automatic analyzer for dispensing a sample and a reagent into a reaction vessel to react with each other and performing analysis of a liquid obtained by the reaction, the analyzer comprising: an analysis unit (8, 9, 16) that is adapted to perform the analysis and quality control analysis for ensuring quality of the analysis; a storage unit that is adapted to store quality control results of the quality control analysis performed by the analysis unit (8, 9, 16); a display unit that is adapted to display the quality control results; and a control unit that is adapted to control an operation of the analysis unit (8, 9, 16), execute, when an arbitrary result is selected from the quality control results stored in the storage unit, based on the selected quality control result, statistical calculation of the selected result and a number of quality control results performed in the past, and causes the display unit to display a statistical calculation result, characterized in that the control unit is adapted to normalize the quality control result stored in the storage unit with a control value and upper-limit and lower-limit control values and to cause the display unit to display the quality control result in a time-series chart (101, 101A) on one screen (100, 200), and the control unit is adapted to limit the quality control results to be displayed in the chart (101, 101A) to those relating to the same analysis item and, when displaying the quality control results in the chart (101, 101A) limited to the same analysis item, the control unit is adapted to specify a replacement timing of a reagent bottle and a calibration execution timing. an analysis unit (8, 9, 16) that is adapted to perform the analysis and quality control analysis for ensuring quality of the analysis; a storage unit that is adapted to store quality control results of the quality control analysis performed by the analysis unit (8, 9, 16); a display unit that is adapted to display the quality control results; and a control unit that is adapted to control an operation of the analysis unit (8, 9, 16), execute, when an arbitrary result is selected from the quality control results stored in the storage unit, based on the selected quality control result, statistical calculation of the selected result and a number of quality control results performed in the past, and causes the display unit to display a statistical calculation result, characterized in that the control unit is adapted to normalize the quality control result stored in the storage unit with a control value and upper-limit and lower-limit control values and to cause the display unit to display the quality control result in a time-series chart (101, 101A) on one screen (100, 200), and the control unit is adapted to limit the quality control results to be displayed in the chart (101, 101A) to those relating to the same analysis item and, when displaying the quality control results in the chart (101, 101A) limited to the same analysis item, the control unit is adapted to specify a replacement timing of a reagent bottle and a calibration execution timing.
An apparatus comprising: an interface to receive a plurality of work requests from a plurality of clients, each being set up with multiple interrupts and different interrupts being chosen to specify different work descriptors; and a plurality of engines (130, 132, 134, 136) to perform the plurality of work requests; wherein the work requests are to be dispatched to the plurality of engines (130, 132, 134, 136) from a plurality of work queues (110, 112, 114), the work queues (110, 112, 114) to store a work descriptor per work request, each work descriptor to include all information needed to perform a corresponding work request, characterized in that the work descriptor includes an interrupt handle designating an entry in an interrupt message table, the apparatus to implement the interrupt message table in a host memory with each interrupt table entry containing a message signaled interrupt, MSI, address and data, and in that the apparatus is configured to use the interrupt handle in the work descriptor to index into the interrupt message table to identify an MSI address and data for generating an interrupt, including to first validate the interrupt handle using a process address space identifier, PASID, identifying a client to ensure the client is allowed to use the interrupt handle by matching the PASID to a PASID included, during interrupt setup and generation, in the interrupt table entry. an interface to receive a plurality of work requests from a plurality of clients, each being set up with multiple interrupts and different interrupts being chosen to specify different work descriptors; and a plurality of engines (130, 132, 134, 136) to perform the plurality of work requests; wherein the work requests are to be dispatched to the plurality of engines (130, 132, 134, 136) from a plurality of work queues (110, 112, 114), the work queues (110, 112, 114) to store a work descriptor per work request, each work descriptor to include all information needed to perform a corresponding work request, characterized in that the work descriptor includes an interrupt handle designating an entry in an interrupt message table, the apparatus to implement the interrupt message table in a host memory with each interrupt table entry containing a message signaled interrupt, MSI, address and data, and in that the apparatus is configured to use the interrupt handle in the work descriptor to index into the interrupt message table to identify an MSI address and data for generating an interrupt, including to first validate the interrupt handle using a process address space identifier, PASID, identifying a client to ensure the client is allowed to use the interrupt handle by matching the PASID to a PASID included, during interrupt setup and generation, in the interrupt table entry.