mhurhangee/patent-ind-claim-en huggingface dataset:
A medical device for detecting at least one analyte in a body fluid, the medical device comprising: • at least one analyte sensor having an insertable portion adapted for at least partially being inserted into a body tissue of a user, • at least one insertion cannula , wherein the analyte sensor at least partially is placed inside the insertion cannula ; • at least one electronics unit , wherein the analyte sensor is operably connected to the electronics unit ; • at least one housing , wherein the housing comprises at least one electronics compartment configured to at least partially receive the electronics unit and at least one sensor compartment configured to at least partially receive the analyte sensor , wherein the sensor compartment forms a sealed compartment receiving at least the insertable portion of the analyte sensor , wherein the sealed compartment comprises at least one detachable upper cap and at least one detachable lower cap , wherein the detachable lower cap is configured for detachment before insertion, thereby opening the insertable portion for insertion, wherein the insertion cannula is attached to the detachable upper cap , wherein the detachable upper cap is configured for detachment after insertion, thereby removing the insertion cannula , wherein the electronics compartment at least partially surrounds the sensor compartment , wherein the electronics compartment and the sensor compartment are designed integrally, wherein the electronics compartment and the sensor compartment form a single piece. • at least one analyte sensor having an insertable portion adapted for at least partially being inserted into a body tissue of a user, • at least one insertion cannula , wherein the analyte sensor at least partially is placed inside the insertion cannula ; • at least one electronics unit , wherein the analyte sensor is operably connected to the electronics unit ; • at least one housing , wherein the housing comprises at least one electronics compartment configured to at least partially receive the electronics unit and at least one sensor compartment configured to at least partially receive the analyte sensor , wherein the sensor compartment forms a sealed compartment receiving at least the insertable portion of the analyte sensor , wherein the sealed compartment comprises at least one detachable upper cap and at least one detachable lower cap , wherein the detachable lower cap is configured for detachment before insertion, thereby opening the insertable portion for insertion, wherein the insertion cannula is attached to the detachable upper cap , wherein the detachable upper cap is configured for detachment after insertion, thereby removing the insertion cannula , wherein the electronics compartment at least partially surrounds the sensor compartment , wherein the electronics compartment and the sensor compartment are designed integrally, wherein the electronics compartment and the sensor compartment form a single piece.
A heater , comprising: a light-emitting tube ; and a multilayer film formed on an outer surface of the light-emitting tube, wherein the multilayer film is formed by alternately stacking a low-refractive index film and a high-refractive index film , and the film thickness of the low-refractive index film farthest from the light-emitting tube is 2.0 times or more the film thicknesses of the other low-refractive index films , and the film thickness of the high-refractive index film closest to the light-emitting tube is equal to or larger than the film thicknesses of the other high-refractive index films , and characterized by the film thickness of the low-refractive index film farthest from the light-emitting tube is 4.0 times or less the film thicknesses of the other low-refractive index films . a light-emitting tube ; and a multilayer film formed on an outer surface of the light-emitting tube, wherein the multilayer film is formed by alternately stacking a low-refractive index film and a high-refractive index film , and the film thickness of the low-refractive index film farthest from the light-emitting tube is 2.0 times or more the film thicknesses of the other low-refractive index films , and the film thickness of the high-refractive index film closest to the light-emitting tube is equal to or larger than the film thicknesses of the other high-refractive index films , and characterized by the film thickness of the low-refractive index film farthest from the light-emitting tube is 4.0 times or less the film thicknesses of the other low-refractive index films .
A determination device comprising: a pressure detecting unit configured to detect pressure in a storage that stores gas discharged from inside an absorption refrigerator; a hydrogen detecting unit configured to detect an amount of hydrogen discharged from the storage ; and a determining unit configured to determine a cause of generation of the gas based on a detection result of the hydrogen detecting unit and a detection result of the pressure detecting unit ; characterized in that the determining unit includes a threshold of the amount of hydrogen that is defined based on a pressure value detected by the pressure detecting unit , and the determining unit is configured to: determine that the gas is generated inside the absorption refrigerator when the amount of hydrogen detected by the hydrogen detecting unit is equal to or greater than the threshold; and determine that the gas is leaked in from outside the absorption refrigerator when the amount of hydrogen detected by the hydrogen detecting unit is less than the threshold. a pressure detecting unit configured to detect pressure in a storage that stores gas discharged from inside an absorption refrigerator; a hydrogen detecting unit configured to detect an amount of hydrogen discharged from the storage ; and a determining unit configured to determine a cause of generation of the gas based on a detection result of the hydrogen detecting unit and a detection result of the pressure detecting unit ; characterized in that the determining unit includes a threshold of the amount of hydrogen that is defined based on a pressure value detected by the pressure detecting unit , and the determining unit is configured to: determine that the gas is generated inside the absorption refrigerator when the amount of hydrogen detected by the hydrogen detecting unit is equal to or greater than the threshold; and determine that the gas is leaked in from outside the absorption refrigerator when the amount of hydrogen detected by the hydrogen detecting unit is less than the threshold. determine that the gas is generated inside the absorption refrigerator when the amount of hydrogen detected by the hydrogen detecting unit is equal to or greater than the threshold; and determine that the gas is leaked in from outside the absorption refrigerator when the amount of hydrogen detected by the hydrogen detecting unit is less than the threshold.
A cooking device (111 to 114) comprising: a heating unit that heats an object to be heated; a heating chamber that houses the object to be heated; a lighting unit (103a to 103d) that emits light to an inside of the heating chamber ; an image capturing unit that captures an image of the inside of the heating chamber ; a display that displays a contour of the object to be heated; an image acquisition unit that acquires an image of the object to be heated from the image capturing unit ; a contour candidate generator that generates a plurality of contour candidates of the object to be heated by using the image of the object to be heated acquired by the image acquisition unit ; and a presented contour determination unit that determines a contour to be displayed on the display from among the plurality of contour candidates acquired by the contour candidate generator ; characterized in that : the cooking device (111 to 114) further comprising: a controller that causes the display to display the contour determined by the presented contour determination unit ; the presented contour determination unit is configured to display, on the display , an input screen requesting that an approved portion or a disapproved portion be selected in the contour of the object to be heated that has been displayed on the display , when the contour displayed on the display is not approved. a heating unit that heats an object to be heated; a heating chamber that houses the object to be heated; a lighting unit (103a to 103d) that emits light to an inside of the heating chamber ; an image capturing unit that captures an image of the inside of the heating chamber ; a display that displays a contour of the object to be heated; an image acquisition unit that acquires an image of the object to be heated from the image capturing unit ; a contour candidate generator that generates a plurality of contour candidates of the object to be heated by using the image of the object to be heated acquired by the image acquisition unit ; and a presented contour determination unit that determines a contour to be displayed on the display from among the plurality of contour candidates acquired by the contour candidate generator ; characterized in that : the cooking device (111 to 114) further comprising: a controller that causes the display to display the contour determined by the presented contour determination unit ; the presented contour determination unit is configured to display, on the display , an input screen requesting that an approved portion or a disapproved portion be selected in the contour of the object to be heated that has been displayed on the display , when the contour displayed on the display is not approved. a controller that causes the display to display the contour determined by the presented contour determination unit ; the presented contour determination unit is configured to display, on the display , an input screen requesting that an approved portion or a disapproved portion be selected in the contour of the object to be heated that has been displayed on the display , when the contour displayed on the display is not approved.
A prosthetic ankle and foot combination comprising a foot component and an ankle joint mechanism , the ankle joint mechanism including a shin component and being constructed to allow damped rotational movement of the foot component relative to the shin component about a medial-lateral joint flexion axis, wherein: the ankle joint mechanism is arranged to provide a continuous hydraulically damped range of ankle motion during walking with dynamically variable damping resistances associated with ankle motion in the plantarflexion and dorsiflexion directions respectively; the combination further comprises a control system coupled to the ankle joint mechanism having at least one sensor for generating signals indicative of at least one of a kinematic parameter of locomotion and walking environment; and the ankle joint mechanism and the control system are arranged such that the damping resistances effective over the said range of motion and associated with motion in the plantarflexion and dorsiflexion directions are adapted automatically in response to the said signals, wherein the control system is arranged to generate signals indicative of ground inclination and to cause the damping resistance in the direction of dorsiflexion to be increased to a maximum value, to limit dorsiflexion at first and second positions in the stance phase of the gait cycle, the first position in the stance phase occurring when the signals are indicative of a walking condition of walking on level ground and the second position occurring when the signals are indicative of walking conditions different to the walking conditions associated with the first position, each of the first and second positions being programmably adjustable. the ankle joint mechanism is arranged to provide a continuous hydraulically damped range of ankle motion during walking with dynamically variable damping resistances associated with ankle motion in the plantarflexion and dorsiflexion directions respectively; the combination further comprises a control system coupled to the ankle joint mechanism having at least one sensor for generating signals indicative of at least one of a kinematic parameter of locomotion and walking environment; and the ankle joint mechanism and the control system are arranged such that the damping resistances effective over the said range of motion and associated with motion in the plantarflexion and dorsiflexion directions are adapted automatically in response to the said signals, wherein the control system is arranged to generate signals indicative of ground inclination and to cause the damping resistance in the direction of dorsiflexion to be increased to a maximum value, to limit dorsiflexion at first and second positions in the stance phase of the gait cycle, the first position in the stance phase occurring when the signals are indicative of a walking condition of walking on level ground and the second position occurring when the signals are indicative of walking conditions different to the walking conditions associated with the first position, each of the first and second positions being programmably adjustable.
A space launcher comprising a launcher body , an engine comprising a combustion chamber opening out onto a nozzle having a main axis (Z-Z), the engine being fixed to the launcher body by means of a cardan , the nozzle being provided with a plate extending radially around the nozzle and isolating a internal volume of the spacecraft from an external medium, the plate delimiting an inner segment of the engine and an outer segment of the engine , the inner segment of the engine comprising the combustion chamber and being isolated from the external medium by the plate , the plate having an inner face and an outer face positioned respectively in the internal volume and in the external medium, characterized in that it further comprises a plurality of damping elements positioned on the inner face of the plate , each damping element comprising a leaf spring parallel to the inner face of the plate . the plate delimiting an inner segment of the engine and an outer segment of the engine , the inner segment of the engine comprising the combustion chamber and being isolated from the external medium by the plate , the plate having an inner face and an outer face positioned respectively in the internal volume and in the external medium, characterized in that it further comprises a plurality of damping elements positioned on the inner face of the plate , each damping element comprising a leaf spring parallel to the inner face of the plate .
A composition comprising Trabectedin for use in the treatment of cancer in an individual, wherein the treatment comprises the following steps: (a) administering to the individual an effective amount of a composition comprising Trabectedin, and (b) subsequently administering to the individual an effective amount of a composition comprising a tTF-NGR protein. (a) administering to the individual an effective amount of a composition comprising Trabectedin, and (b) subsequently administering to the individual an effective amount of a composition comprising a tTF-NGR protein.
A method for increasing the intrinsic viscosity of a polycondensate melt under negative pressure, - in which the melt enters a chamber through a perforated plate or a screen with a plurality of openings with a diameter of less than 0.5 mm, in which chamber there is a pressure of less than 20 mbar, - in which the melt passes through said chamber in free fall in the form of thin threads, and - in which the thin threads are brought together in a reservoir below the chamber to form a melt bath and the melt dwells in the reservoir , characterized in - that the melt dwells in the reservoir for at least one minute, and in the course of this the melt in the reservoir is continuously moved under vacuum by a discharge extruder which is aligned in a horizontal position and is preferably screw-shaped, - that a height of the melt bath in the reservoir is selected to be so large that the discharge extruder in the reservoir is not completely covered by the melt, and, in this regard, the melt is repeatedly torn open by a rotational movement of the discharge extruder and the surface is renewed, - that the polycondensation which has begun in the thin threads is continued in the melt bath by the dwelling and keeping in motion, and thus a polymer chain growth and thus a further increase in the intrinsic viscosity is effected, and - that the melt is discharged from the reservoir by the discharge extruder . - in which the melt enters a chamber through a perforated plate or a screen with a plurality of openings with a diameter of less than 0.5 mm, in which chamber there is a pressure of less than 20 mbar, - in which the melt passes through said chamber in free fall in the form of thin threads, and - in which the thin threads are brought together in a reservoir below the chamber to form a melt bath and the melt dwells in the reservoir , - that the melt dwells in the reservoir for at least one minute, and in the course of this the melt in the reservoir is continuously moved under vacuum by a discharge extruder which is aligned in a horizontal position and is preferably screw-shaped, - that a height of the melt bath in the reservoir is selected to be so large that the discharge extruder in the reservoir is not completely covered by the melt, and, in this regard, the melt is repeatedly torn open by a rotational movement of the discharge extruder and the surface is renewed, - that the polycondensation which has begun in the thin threads is continued in the melt bath by the dwelling and keeping in motion, and thus a polymer chain growth and thus a further increase in the intrinsic viscosity is effected, and - that the melt is discharged from the reservoir by the discharge extruder .
A data processing method performed by an information processing device operating a machine learning algorithm , said machine learning algorithm processing operational data originating from a context and human mental brain activity data relating to human participation with said context provided by a brain-computer interface operating a respective classifier, wherein said operational data and human mental brain activity data are identified by sensing human mental engagement with an aspect of said context and wherein at least one of analysis and inferencing by said machine learning algorithm and aspects of said context are controlled by said information processing device based on said data processing , characterized in that said operational data comprise at least one of sensed, perceived, obtained or otherwise identified physical data, virtual data and environmental information originating from or relating to the context which is a real-life context that is a non-predefined or authentic non-virtual context or environment occurring in reality or practice, and said human mental brain activity data comprise implicit human participation with said real-life context provided by the brain-computer interface which is a passive brain-computer interface operating one or more classifiers associated with different types of response or mental states of human participation, wherein said operational data and said human mental brain activity data processed by said machine learning algorithm are identified by sensing human mental engagement with an aspect of said real-life context referring to what aspect or aspects of said real-life context said human participation is momentarily implicitly involved with continuously monitored by the passive brain-computer interface operating a respective classifier or classifiers , and wherein at least one of analysis and inferencing by said machine learning algorithm and aspects of said real-life context are controlled by said information processing device based on said data processing to impart human knowledge, intelligence, subjective interpretations and human advise about tasks, processes, devices, and information perceived from said real-life context .
A combined cycle power plant comprising: a gas turbine ; a heat recovery steam generator coupled to the gas turbine , the heat recovery steam generator comprising an attemperator that dispenses a fluid at a spray rate determined by a loading condition of the combined cycle power plant ; a steam turbine coupled to the heat recovery steam generator , the steam turbine configured to receive steam generated in the heat recovery steam generator ; and a control system characterized in that the control system is configured to detect the spray rate and to automatically adjust a heat rate of the combined cycle power plant in accordance with the spray rate and the loading condition of the combined cycle power plant . a gas turbine ; a heat recovery steam generator coupled to the gas turbine , the heat recovery steam generator comprising an attemperator that dispenses a fluid at a spray rate determined by a loading condition of the combined cycle power plant ; a steam turbine coupled to the heat recovery steam generator , the steam turbine configured to receive steam generated in the heat recovery steam generator ; and a control system characterized in that the control system is configured to detect the spray rate and to automatically adjust a heat rate of the combined cycle power plant in accordance with the spray rate and the loading condition of the combined cycle power plant .
A power tool comprising: an electric brushless direct current (BLDC) motor (302; 362) having a rotor and a stator defining a plurality of phases; a power unit (306; 366) including: a first switch circuit (328; 386) connected electrically between a first power supply (312; 370) and the motor (302; 362), and a second switch circuit (326; 388) connected electrically between a second power supply (310; 372) and the motor (302; 362); and a controller (330; 390) configured to control a switching operation of the first switch circuit and the second switch circuit to regulate a supply of power from at least one of the first power supply and/or the second power supply to the motor ; wherein the stator defines three phases (PU, PV, PW) with each phase (PU, PV, PW) corresponding to two windings electrically connected, wherein each of the first switch circuit and the second switch circuit is configured as a three-phase inverter circuit; characterized in that each phase (PU, PV, PW) is electrically coupled to both the first switch circuit and the second switch circuit and is selectively driven by one of the first switch circuit or the second switch circuit . an electric brushless direct current (BLDC) motor (302; 362) having a rotor and a stator defining a plurality of phases; a power unit (306; 366) including: a first switch circuit (328; 386) connected electrically between a first power supply (312; 370) and the motor (302; 362), and a second switch circuit (326; 388) connected electrically between a second power supply (310; 372) and the motor (302; 362); and a controller (330; 390) configured to control a switching operation of the first switch circuit and the second switch circuit to regulate a supply of power from at least one of the first power supply and/or the second power supply to the motor ; wherein the stator defines three phases (PU, PV, PW) with each phase (PU, PV, PW) corresponding to two windings electrically connected, wherein each of the first switch circuit and the second switch circuit is configured as a three-phase inverter circuit; characterized in that each phase (PU, PV, PW) is electrically coupled to both the first switch circuit and the second switch circuit and is selectively driven by one of the first switch circuit or the second switch circuit .