mhurhangee/ep-ind-claims huggingface dataset:
Camera add-on for light field imaging, insertable between a lens and a body of a camera, the camera comprising an image sensor, the camera add-on comprising: - a kaleidoscope or a prism coated with a reflective material, for obtaining a multitude of light field views of an object or scene; - a pick-up lens system for projecting at least some of the multitude of light field views to the image sensor during the same exposure of the sensor, when the camera add-on is inserted, the pick-up lens system is arranged between the kaleidoscope or prism and the image sensor of the camera; and characterized in that the pick-up lens system has an aperture for regulating a depth of field of the light field views, such that light field aliasing can be controlled by a user. - a kaleidoscope or a prism coated with a reflective material, for obtaining a multitude of light field views of an object or scene; - a pick-up lens system for projecting at least some of the multitude of light field views to the image sensor during the same exposure of the sensor,
A capsule for use in an evaporator, having at least one first cavity, which is formed at least partially by a cover, side walls and base of the capsule, and an active substance which can be evaporated and is accommodated in the first cavity of the capsule, wherein the side walls and/or the base are of double-walled design, at least in sections, with an inner wall, which faces the first cavity of the capsule, and an outer wall, which faces the outer side of the capsule, such that at least one second cavity is formed between the inner wall and the outer wall, wherein an auxiliary substance, preferably a further active substance, a chemical reactant and/or a flavoring agent is accommodated in the second cavity, characterized in that the base of the capsule has, at least on its outer side, at least partially a material, preferably a metal, with a higher thermal conductivity compared with the material of the side wall.
A terminal device that communicates with a base station device, comprising: a reception unit that receives information related to a first configuration and/or information related to a second configuration, and a grant; and a transmission unit that, in a case of an uplink signal being scheduled based on the grant, transmits the uplink signal to the base station device in the earliest uplink subframe on or after a designated subframe from a subframe in which the grant was detected, the device being further configured in a way that in a case of both the first configuration and the second configuration being configured, if the grant is a dynamic scheduled grant, the transmission unit configures a transmit power of the uplink signal based on the information related to a first configuration if the uplink subframe is included in a first subframe subset, configures the transmit power of the uplink signal based on the information related to a second configuration if the uplink subframe is included in a second subframe subset, and if the grant is a random access response grant, the transmission unit configures the transmit power of the uplink signal based on information related to a same uplink power control, irrespectively of whether the uplink subframe is included in the first subframe subset or the second subframe subset. a reception unit that receives information related to a first configuration and/or information related to a second configuration, and a grant; and a transmission unit that, in a case of an uplink signal being scheduled based on the grant, transmits the uplink signal to the base station device in the earliest uplink subframe on or after a designated subframe from a subframe in which the grant was detected, the device being further configured in a way that in a case of both the first configuration and the second configuration being configured, if the grant is a dynamic scheduled grant, the transmission unit configures a transmit power of the uplink signal based on the information related to a first configuration if the uplink subframe is included in a first subframe subset, configures the transmit power of the uplink signal based on the information related to a second configuration if the uplink subframe is included in a second subframe subset, and if the grant is a random access response grant, the transmission unit configures the transmit power of the uplink signal based on information related to a same uplink power control, irrespectively of whether the uplink subframe is included in the first subframe subset or the second subframe subset.
Iron comprising a tank, a base provided with a plate and a containing body associated with said plate, said base defining a chamber connecting said tank to said plate and in which, during use, the water coming from said tank contacts a heated surface of said chamber in a contact zone in order to generate steam, said iron being provided with a removable anti-limescale device comprising a tubular body located in said chamber and defining a passage channel for the steam toward said plate, characterised in that said tubular body comprises in correspondence of one of its ends, at least a through passage hole for the water, perpendicularly to the longitudinal extension of said tubular body, located on said contact zone.
A system for cooling an electric driving unit (19, 33, 41) which includes a driving circuit for a motor (7a, 13a, 41a) and is arranged in an aircraft, the system comprising: at least one heat exchanger (17, 31, 51) configured to be arranged adjacent to said at least one electric driving unit (19, 33, 41), the heat exchanger (17, 31, 51) configured to perform heat exchange between the electric driving unit (19, 33, 41) and air flowing through the heat exchanger (17, 31, 51); an electric blower (21, 35, 53) configured to suck the air from the heat exchanger (17, 33, 51) for heat exchange and configured to exhaust the air to an outside of the aircraft; and a controller configured to control a rotational speed of the electric blower (21, 35, 53) in accordance with a power consumption of the driving circuit for the motor (7a, 13a, 41a) as an index of an amount of heat generation of the electric driving unit (19, 33, 41) to obtain a flow rate of the air that is commensurate with heat exchange by the heat exchanger (17, 33, 51) for the amount of heat generation. at least one heat exchanger (17, 31, 51) configured to be arranged adjacent to said at least one electric driving unit (19, 33, 41), the heat exchanger (17, 31, 51) configured to perform heat exchange between the electric driving unit (19, 33, 41) and air flowing through the heat exchanger (17, 31, 51); an electric blower (21, 35, 53) configured to suck the air from the heat exchanger (17, 33, 51) for heat exchange and configured to exhaust the air to an outside of the aircraft; and a controller configured to control a rotational speed of the electric blower (21, 35, 53) in accordance with a power consumption of the driving circuit for the motor (7a, 13a, 41a) as an index of an amount of heat generation of the electric driving unit (19, 33, 41) to obtain a flow rate of the air that is commensurate with heat exchange by the heat exchanger (17, 33, 51) for the amount of heat generation.
A package forwarding method for a Software Defined Network, called SDN, wherein the SDN comprises: a controller, a plurality of switches, links between the switches, wherein the links comprise redundant segments, each of the redundant segments is between two respective ones of the plurality of switches and is configured in a blocked state for avoiding a loop, the method comprises: detecting, by the controller, that a link in the SDN is interrupted; determining, by the controller, a replacement link for replacing the interrupted link, wherein the replacement link includes only one redundant segment; sending, by the controller, messages for cancelling the blocked state to switches at two ends of the one redundant segment in the replacement link, conducting connection processing on the replacement link according to the messages; and forwarding a package via the replacement link after connection. detecting, by the controller, that a link in the SDN is interrupted; determining, by the controller, a replacement link for replacing the interrupted link, wherein the replacement link includes only one redundant segment; sending, by the controller, messages for cancelling the blocked state to switches at two ends of the one redundant segment in the replacement link, conducting connection processing on the replacement link according to the messages; and forwarding a package via the replacement link after connection.
Pushbutton having a housing formed from operating head and base, housing guides, in which a spring element is mounted, projecting from the operating head into the base, characterized in that the housing guides are arranged so as to be operatively connected to two locking slides when the operating head is operated.
A method of measuring a concentration of a gaseous substance in an environment using a gas sensor comprising a luminescent compound having a luminescence lifetime that is quenched by the gaseous substance and a temperature sensor configured to measure a temperature of the luminescent compound, the method comprising: measuring a value of the luminescence lifetime of the luminescent compound while the gas sensor is exposed to the environment; and deriving a concentration of the gaseous substance from the measured luminescence lifetime taking account of the temperature of the luminescent compound measured by the temperature sensor, the derivation using a model of the relationship between the luminescence lifetime and the concentration of the gaseous substance that is in accordance with a Stern-Volmer equation and that is modified by a calibration factor representing a proportion of the luminescent compound not being exposed to the gaseous substance, the Stern-Volmer equation including either a Stern-Volmer constant that is linearly dependent on temperature, or a value of the luminescence lifetime in the absence of quenching by the gaseous substance that is linearly dependent on temperature, or both. measuring a value of the luminescence lifetime of the luminescent compound while the gas sensor is exposed to the environment; and deriving a concentration of the gaseous substance from the measured luminescence lifetime taking account of the temperature of the luminescent compound measured by the temperature sensor, the derivation using a model of the relationship between the luminescence lifetime and the concentration of the gaseous substance that is in accordance with a Stern-Volmer equation and that is modified by a calibration factor representing a proportion of the luminescent compound not being exposed to the gaseous substance, the Stern-Volmer equation including either a Stern-Volmer constant that is linearly dependent on temperature, or a value of the luminescence lifetime in the absence of quenching by the gaseous substance that is linearly dependent on temperature, or both.
An antenna array having a plurality of antenna elements (3001-1 to 3001-8) comprising: a plurality of transceiver modules (3003-1 to 3003-6); an active antenna element subset (3001-3 to 3001-6) of the plurality of antenna elements (3001-1 to 3001-8), wherein the active antenna element subset (3001-3 to 3001-6) comprises at least one active antenna element, each active antenna element being coupled to its own transceiver module of the plurality of transceiver modules (3003-1 to 3003-6); and at least one sub-array of at least two antenna elements (3001-1, 3001-2, 3001-7, 3001-8) of the plurality of antenna elements (3001-1 to 3001-8), wherein the at least two antenna elements (3001-1, 3001-2, 3001-7, 3001-8) are combined passively by a passive feed network (3006-1,3006-2), the passive feed network being adjusted by determining static phase relations between the at least two antenna elements of the at least one subarray and wherein the passive feed network is coupled to a common sub-array transceiver module (3003-1, 3003-2). a plurality of transceiver modules (3003-1 to 3003-6); an active antenna element subset (3001-3 to 3001-6) of the plurality of antenna elements (3001-1 to 3001-8), wherein the active antenna element subset (3001-3 to 3001-6) comprises at least one active antenna element, each active antenna element being coupled to its own transceiver module of the plurality of transceiver modules (3003-1 to 3003-6); and at least one sub-array of at least two antenna elements (3001-1, 3001-2, 3001-7, 3001-8) of the plurality of antenna elements (3001-1 to 3001-8), wherein the at least two antenna elements (3001-1, 3001-2, 3001-7, 3001-8) are combined passively by a passive feed network (3006-1,3006-2), the passive feed network being adjusted by determining static phase relations between the at least two antenna elements of the at least one subarray and wherein the passive feed network is coupled to a common sub-array transceiver module (3003-1, 3003-2).
A transmission unit with reduced crosstalk signal, comprising: a first conductor group including at least one first conductor surrounded by a first sheath and at least one second conductor surrounded by a second sheath; the first and second conductors (111, 112) being axially arranged corresponding to one another; characterized in that the first sheath having a dielectric coefficient higher than that of the second sheath and the first sheath surrounds a signal conductor and the second sheath surrounds an earth conductor. a first conductor group including at least one first conductor surrounded by a first sheath and at least one second conductor surrounded by a second sheath; the first and second conductors (111, 112) being axially arranged corresponding to one another; characterized in that the first sheath having a dielectric coefficient higher than that of the second sheath and the first sheath surrounds a signal conductor and the second sheath surrounds an earth conductor.
A system for use in seismic signal detection, the system comprising: at least one electrically levitated seismic sensor, comprising: a housing; at least one magnet for creating a magnetic field mounted within the housing; and a moving coil within the housing structured and arranged so as to be fixed in a radial direction relative to the housing and movable in an axial direction thereof; an electrical circuit configured or designed for providing an electrical signal to the seismic sensor; a digital signal processor in communication with the seismic sensor; and a set of instructions executable by the processor that, when executed, apply the electrical signal to the seismic sensor such that the moving coil is levitated against gravitational force so as to be located at a central position relative to the magnetic field in the seismic sensor; characterized in that the electrical circuit is further configured or designed to provide a positive displacement feedback signal to an output of the seismic sensor such that the natural frequency of the seismic sensor is reduced. at least one electrically levitated seismic sensor, comprising: a housing; at least one magnet for creating a magnetic field mounted within the housing; and a moving coil within the housing structured and arranged so as to be fixed in a radial direction relative to the housing and movable in an axial direction thereof; an electrical circuit configured or designed for providing an electrical signal to the seismic sensor; a digital signal processor in communication with the seismic sensor; and a set of instructions executable by the processor that, when executed, apply the electrical signal to the seismic sensor such that the moving coil is levitated against gravitational force so as to be located at a central position relative to the magnetic field in the seismic sensor; characterized in that the electrical circuit is further configured or designed to provide a positive displacement feedback signal to an output of the seismic sensor such that the natural frequency of the seismic sensor is reduced. a housing; at least one magnet for creating a magnetic field mounted within the housing; and a moving coil within the housing structured and arranged so as to be fixed in a radial direction relative to the housing and movable in an axial direction thereof; an electrical circuit configured or designed for providing an electrical signal to the seismic sensor; a digital signal processor in communication with the seismic sensor; and a set of instructions executable by the processor that, when executed, apply the electrical signal to the seismic sensor such that the moving coil is levitated against gravitational force so as to be located at a central position relative to the magnetic field in the seismic sensor; characterized in that the electrical circuit is further configured or designed to provide a positive displacement feedback signal to an output of the seismic sensor such that the natural frequency of the seismic sensor is reduced.
A chemical compound having formula I: wherein: R is selected from methyl (-CH 3), ethyl (-C 2 H 5), n - or i -propyl (-C 3 H 7), n - or i -butyl (-C 4 H 9) or benzyl (-CH 2 C 6 H 5); R' and R" are independently selected from H, methyl (-CH 3), benzyl (-CH 2 C 6 H 5) and secondary butyl (-CH 2 CH(CH 3) 2, or, R' and R" together with the C atom to which they are attached, provide a C 5-6 ring; Q is -O-; X and Y are both F; Ar is selected from unsubstituted phenyl or phenyl substituted with halogen, trihalomethyl, cyano or nitro groups; Z is H; n is 0, Z' is -NH 2 and a double bond exists between position 3 and position 4; or a pharmaceutically acceptable salt, ester or salt of such ester of a compound on formula I. R is selected from methyl (-CH 3), ethyl (-C 2 H 5), n - or i -propyl (-C 3 H 7), n - or i -butyl (-C 4 H 9) or benzyl (-CH 2 C 6 H 5); R' and R" are independently selected from H, methyl (-CH 3), benzyl (-CH 2 C 6 H 5) and secondary butyl (-CH 2 CH(CH 3) 2, or, R' and R" together with the C atom to which they are attached, provide a C 5-6 ring; Q is -O-; X and Y are both F; Ar is selected from unsubstituted phenyl or phenyl substituted with halogen, trihalomethyl, cyano or nitro groups; Z is H; n is 0, Z' is -NH 2 and a double bond exists between position 3 and position 4; or a pharmaceutically acceptable salt, ester or salt of such ester of a compound on formula I.
A method of securely supporting password change comprising: detecting an occurrence of a password change operation in execution on a system having a password database that stores passwords resulting from the password change operation; in response to the detection of the occurrence of the password change operation: displaying to a user a prompt for a new password, the prompt independent of the detected password change operation; receiving the new password; storing the new password in an independent database other than the password database; and providing the new password from the independent database to the password database; and storing the new password in the password database on the system. detecting an occurrence of a password change operation in execution on a system having a password database that stores passwords resulting from the password change operation; in response to the detection of the occurrence of the password change operation: displaying to a user a prompt for a new password, the prompt independent of the detected password change operation; receiving the new password; storing the new password in an independent database other than the password database; and providing the new password from the independent database to the password database; and storing the new password in the password database on the system. displaying to a user a prompt for a new password, the prompt independent of the detected password change operation; receiving the new password; storing the new password in an independent database other than the password database; and providing the new password from the independent database to the password database; and storing the new password in the password database on the system.
A compression stocking having a tubular compression region, wherein the compression region is formed from a knitted fabric having a weft thread, characterized in that the weft thread has a core thread having a fineness of at least 470 dtex, wherein the compression region in the ankle region exerts a compression pressure of at least 2.4 kPa and at most 2.8 kPa.
A process for preparing a polymer, comprising the steps of: a) combining hydrazine, oleum, 4,4'-oxybis(benzoic acid),and one or both of terephthalic acid and isophthalic acid, to form a reaction mixture, wherein the oleum is added in an amount of at least about 5 molar equivalents of SO 3 based on the number of moles of hydrazine; and b) heating the reaction mixture to a temperature of 100°C to 180°C until a polymer is prepared. a) combining hydrazine, oleum, 4,4'-oxybis(benzoic acid),and one or both of terephthalic acid and isophthalic acid, to form a reaction mixture, wherein the oleum is added in an amount of at least about 5 molar equivalents of SO 3 based on the number of moles of hydrazine; and b) heating the reaction mixture to a temperature of 100°C to 180°C until a polymer is prepared.
Device (1, 1') for observing an object, including: - a light source and an image sensor, said light source being able to emit a light wave, called the emission wave, along an emission axis, in such a way that the light wave propagates, along an optical path, to the image sensor through the object; - an optical system that is placed, on the optical path, between the light source and the image sensor; characterized in that the device also includes: - a holder that is able to hold the object, and that defines a first position (10.1) and a second position (10.2), each position being able to receive the object, the holder being configured such that ▪ the first position (10.1) is interposed, on the optical path, between the light source and the optical system, the latter then being configured to conjugate the image sensor to the first position; ▪ the second position (10.2) is interposed, on the optical path, between the optical system and the image sensor, in such a way that there are no magnifying optics between the second position and the image sensor. - a light source and an image sensor, said light source being able to emit a light wave, called the emission wave, along an emission axis, in such a way that the light wave propagates, along an optical path, to the image sensor through the object; - an optical system that is placed, on the optical path, between the light source and the image sensor; - a holder that is able to hold the object, and that defines a first position (10.1) and a second position (10.2), each position being able to receive the object, the holder being configured such that ▪ the first position (10.1) is interposed, on the optical path, between the light source and the optical system, the latter then being configured to conjugate the image sensor to the first position; ▪ the second position (10.2) is interposed, on the optical path, between the optical system and the image sensor, in such a way that there are no magnifying optics between the second position and the image sensor. ▪ the first position (10.1) is interposed, on the optical path, between the light source and the optical system, the latter then being configured to conjugate the image sensor to the first position; ▪ the second position (10.2) is interposed, on the optical path, between the optical system and the image sensor, in such a way that there are no magnifying optics between the second position and the image sensor.