mhurhangee/ep-ind-claims huggingface dataset:
Method for melting in a furnace comprising a melting chamber, method wherein: - the melting chamber is heated by means of combustion, thereby generating thermal energy and hot fumes in the melting chamber, - the hot fumes are evacuated from the melting chamber and air is heated as a heat transfer gas by heat exchange with hot fumes removed from the melting chamber, thereby obtaining hot air, - at least one combustion reagent chosen from oxygen and/or the gaseous fuel is preheated by heat exchange with a the hot air, thereby obtaining at least one preheated reagent (41, 51) and tempered air and the at least one preheated reagent (41, 51) is used as a combustion reagent for the heating of the melting chamber, characterised in that: - the tempered air is compressed in a first air compressor so as to obtain compressed tempered air, - the compressed tempered air is heated by heat exchange with hot fumes so as to obtain heated compressed air, and - mechanical and/or electrical energy is generated by expansion of the heated compressed air in an expansion turbine. - the melting chamber is heated by means of combustion, thereby generating thermal energy and hot fumes in the melting chamber, - the hot fumes are evacuated from the melting chamber and air is heated as a heat transfer gas by heat exchange with hot fumes removed from the melting chamber, thereby obtaining hot air, - at least one combustion reagent chosen from oxygen and/or the gaseous fuel is preheated by heat exchange with a the hot air, thereby obtaining at least one preheated reagent (41, 51) and tempered air and the at least one preheated reagent (41, 51) is used as a combustion reagent for the heating of the melting chamber, - the tempered air is compressed in a first air compressor so as to obtain compressed tempered air, - the compressed tempered air is heated by heat exchange with hot fumes so as to obtain heated compressed air, and - mechanical and/or electrical energy is generated by expansion of the heated compressed air in an expansion turbine.
Method for acquiring at least one geometric characteristic at two sets of homologous points (Pm1,Pd1) of two lenses (10,20), one measured and the other deduced, belonging to a given pair of spectacles, a set of measured points belonging to the measured lens and another set of deduced points belonging to the deduced lens, this method including the steps of: a) surface profiling the measured lens in order to acquire said at least one geometric characteristic at the points of the set of the measured points; and b) deducing said at least one geometric characteristic at the points of the set of deduced points, from, at least, said at least one geometric characteristic obtained by surface profilometry on the measured lens, and a surficial or optical power (R',S') of at least the deduced lens. a) surface profiling the measured lens in order to acquire said at least one geometric characteristic at the points of the set of the measured points; and b) deducing said at least one geometric characteristic at the points of the set of deduced points, from, at least, said at least one geometric characteristic obtained by surface profilometry on the measured lens, and a surficial or optical power (R',S') of at least the deduced lens.
A method for sending channel state information, CSI, characterized in that the method is for a scenario of carrier aggregation or a scenario of coordinated multiple point transmission and reception, and the method comprises: receiving (Step 11), by a user equipment, a scheduling grant command sent by a base station; obtaining (Step 12), by the user equipment, a CSI location label according to information of a resource occupied by a data channel that is indicated by the scheduling grant command, wherein the information of the resource occupied by the data channel that is indicated by the scheduling grant command is used as the CSI location label; and sending (Step 13), by the user equipment to the base station through the data channel, CSI of a carrier whose carrier information is equal to the CSI location label. receiving (Step 11), by a user equipment, a scheduling grant command sent by a base station; obtaining (Step 12), by the user equipment, a CSI location label according to information of a resource occupied by a data channel that is indicated by the scheduling grant command, wherein the information of the resource occupied by the data channel that is indicated by the scheduling grant command is used as the CSI location label; and sending (Step 13), by the user equipment to the base station through the data channel, CSI of a carrier whose carrier information is equal to the CSI location label.
An apparatus for controlling an opening/closing body for automatically opening/closing the opening/closing body, the apparatus comprising: a latch for drawing in and releasing a striker; a displacement body for operating said latch via a latch operating mechanism, said displacement body being movable and displaced between movable regions including a latch closing region for drawing in said latch, a latch releasing region for releasing said latch and a neutral region located between said latch closing region and said latch releasing region; a first detecting section configured to output a first detection signal in response to passage of the displacement body through a first boundary portion of the neutral region on the side of the closing region; and a control unit which, when effecting a neutral returning movement for returning the displacement body from the closing region to the neutral region, stores switchover information indicative of switchover of the first detection signal detected in the course of the latch closing movement and effects the neutral returning movement in accordance with the switchover information, characterized in that said control unit is configured to control said displacement body to pivot said latch toward a pawl that restricts pivotal movement of said latch when said control unit does not store said switchover information. a latch for drawing in and releasing a striker; a displacement body for operating said latch via a latch operating mechanism, said displacement body being movable and displaced between movable regions including a latch closing region for drawing in said latch, a latch releasing region for releasing said latch and a neutral region located between said latch closing region and said latch releasing region; a first detecting section configured to output a first detection signal in response to passage of the displacement body through a first boundary portion of the neutral region on the side of the closing region; and a control unit which, when effecting a neutral returning movement for returning the displacement body from the closing region to the neutral region, stores switchover information indicative of switchover of the first detection signal detected in the course of the latch closing movement and effects the neutral returning movement in accordance with the switchover information, characterized in that said control unit is configured to control said displacement body to pivot said latch toward a pawl that restricts pivotal movement of said latch when said control unit does not store said switchover information.
A system comprising: a subsea flow line to communicate a process flow associated with a subsea well; and a seabed-disposed two stage heat exchanger to transfer thermal energy between the process flow and an ambient sea, wherein the heat exchanger comprises: a primary stage in communication with the flow line, wherein the primary stage comprises a seabed-disposed first heat exchanger configured to transfer thermal energy between the process flow and a heat exchange fluid; and a secondary stage in thermal communication with the primary stage, wherein the secondary stage comprises a seabed-disposed second heat exchanger configured to transfer thermal energy between the heat exchange fluid and sea water; wherein the heat exchange fluid is isolated from the process flow and the secondary stage comprises a seabed-disposed pump to circulate the heat exchange fluid in a closed circulation path that extends through the seabed-disposed second heat exchanger and the seabed-disposed first heat exchanger, such that the heat exchange fluid exits an outlet of the seabed-disposed pump, enters an inlet of the seabed-disposed first heat exchanger, exits an outlet of the seabed-disposed first heat exchanger to enter an inlet of the seabed-disposed second heat exchanger and exits an outlet of the seabed-disposed second heat exchanger to return to an inlet of the seabed-disposed pump, characterised in that the seabed-disposed pump is immersed in the heat exchange fluid of the closed circulation path. a subsea flow line to communicate a process flow associated with a subsea well; and a seabed-disposed two stage heat exchanger to transfer thermal energy between the process flow and an ambient sea, wherein the heat exchanger comprises: a primary stage in communication with the flow line, wherein the primary stage comprises a seabed-disposed first heat exchanger configured to transfer thermal energy between the process flow and a heat exchange fluid; and a secondary stage in thermal communication with the primary stage, wherein the secondary stage comprises a seabed-disposed second heat exchanger configured to transfer thermal energy between the heat exchange fluid and sea water; a primary stage in communication with the flow line, wherein the primary stage comprises a seabed-disposed first heat exchanger configured to transfer thermal energy between the process flow and a heat exchange fluid; and a secondary stage in thermal communication with the primary stage, wherein the secondary stage comprises a seabed-disposed second heat exchanger configured to transfer thermal energy between the heat exchange fluid and sea water;
A method of interrogating a phase based transducer, said transducer providing a change in phase of signal propagation in response to a sensed parameter, said method comprising: receiving a single pulse signal propagated through said transducer, combining a delayed version and an undelayed version of said single pulse signal determining from said combination a measure of the rate of change of phase with time of said signal; wherein said delayed version is delayed by a time period less than the pulse duration. receiving a single pulse signal propagated through said transducer, combining a delayed version and an undelayed version of said single pulse signal determining from said combination a measure of the rate of change of phase with time of said signal; wherein said delayed version is delayed by a time period less than the pulse duration.
A method for performing beamforming by a base station in a wireless communication system, the method comprising: obtaining transmission time proportions allocated to each of a plurality of beam directions (712, 713) based on a number of inner-coverage active user equipments, UEs, (111,112), N 0, and a number of extended-coverage active UEs (121, 122), N k, belonging to each beam direction, k, of the plurality of beam directions; and performing beamforming to send control information in each of the plurality of beam directions (712, 713) based on the obtained transmission time proportions (920, 930, 940), wherein the transmission time proportions are determined in proportion to the number of extended-coverage active UEs belonging to each of the plurality of beam directions, and wherein the inner-coverage active UEs are located within a range in which they are able to receive signals from the base station without using a beamforming in which the base station sends signals in beams, and the extended-coverage active UEs are located within a range in which they are able to receive signals from the base station only when using the beamforming at the base station. obtaining transmission time proportions allocated to each of a plurality of beam directions (712, 713) based on a number of inner-coverage active user equipments, UEs, (111,112), N 0, and a number of extended-coverage active UEs (121, 122), N k, belonging to each beam direction, k, of the plurality of beam directions; and performing beamforming to send control information in each of the plurality of beam directions (712, 713) based on the obtained transmission time proportions (920, 930, 940), wherein the transmission time proportions are determined in proportion to the number of extended-coverage active UEs belonging to each of the plurality of beam directions, and wherein the inner-coverage active UEs are located within a range in which they are able to receive signals from the base station without using a beamforming in which the base station sends signals in beams, and the extended-coverage active UEs are located within a range in which they are able to receive signals from the base station only when using the beamforming at the base station.
Device for producing strand-shaped products such as synthetic tapes, fibre strands, monofilaments, or films which are extruded from a polymer melt, having an extrusion installation, having a cooling installation, having a plurality of roller delivery units (5, 6, 7) and a plurality of treatment installations (9.1, 9.2) that are disposed between the roller delivery units (5, 6, 7), characterized in that the treatment installations (9.1, 9.2) are disposed in levels on top of one another, and in that the roller delivery units (5, 6, 7) at both ends of the treatment installations (9.1, 9.2) are mutually opposite in such a manner that the treatment installations (9.1, 9.2) are passed through by the product in opposite directions, and in that - the treatment installations (9.1, 9.2) for the thermal treatment of the products have separate heating means (20.1, 20.2), wherein the heating means (20.1, 20.2) of the treatment installations (9.1, 9.2) are configured so as to be controllable in a mutually independent manner, and/or - the treatment installations (9.1, 9.2, 9.3) is configured as a heating device having a plurality of heating ducts (19.1, 19.2, 19.3) that are disposed in levels on top of one another and which are configured so as to be heatable in a mutually independent manner. - the treatment installations (9.1, 9.2) for the thermal treatment of the products have separate heating means (20.1, 20.2), wherein the heating means (20.1, 20.2) of the treatment installations (9.1, 9.2) are configured so as to be controllable in a mutually independent manner, and/or - the treatment installations (9.1, 9.2, 9.3) is configured as a heating device having a plurality of heating ducts (19.1, 19.2, 19.3) that are disposed in levels on top of one another and which are configured so as to be heatable in a mutually independent manner.
Control device intended to be mounted in a through-opening machined in a middle of a watch case and comprising a rotatable part and a support for this rotatable part, the rotatable part comprising a gripping member, a control member, forming a rotation sensor or provided to drive a mechanism located inside the watch case, and a shaft connecting the gripping member to the control member, the rotation sensor and the mechanism respectively comprising a detector and an element for coupling with the control member, which are provided inside the watch case in a radial peripheral region of the control member, the support having a circular opening through which the shaft passes and which has a diameter that is smaller than the maximum radial dimension of the control member and smaller than the maximum radial dimension of the gripping member; characterised in that, on a first side of the circular opening, the support has a cavity which is open in the direction of the axis of rotation and which is intended to open out into the interior of the watch case, the dimensions of the cavity being provided such that the latter can house therein at least a most part of the control member which is fixedly mounted on the shaft, such that this control member can be momentarily retracted, at least for the most part, into the cavity following an axial movement of the shaft into a position in which the detector or the coupling element can be mounted inside the watch case.
A storage device (3000, 3090) comprising: one or more cartridges, each cartridge defining a respective cavity of one or more cavities for receiving a respective storage item of one or more storage items, the one or more cartridges further defining a slot; a receiver defining two or more radially extending cells for receiving the one or more cartridges, and defining a passageway extending longitudinally along the center of the receiver to an opening defined in an external surface of the receiver; two or more stops, each of the one or more stops being interposed on the receiver between two adjacent cells of the one or more radially extending cells; and one or more springs, each of the one or more springs extending through a slot of a respective cartridge of the one or more cartridges and being positioned and restrained between two adjacent stops of the two or more stops, each spring of the one or more springs being sized to bow between the two stops and bias each of the one or more cartridges in a first position in the one or more cells wherein the cavity is not aligned with the passageway, or in a second position in the one or more cells wherein the cavity is aligned with the passageway. one or more cartridges, each cartridge defining a respective cavity of one or more cavities for receiving a respective storage item of one or more storage items, the one or more cartridges further defining a slot; a receiver defining two or more radially extending cells for receiving the one or more cartridges, and defining a passageway extending longitudinally along the center of the receiver to an opening defined in an external surface of the receiver; two or more stops, each of the one or more stops being interposed on the receiver between two adjacent cells of the one or more radially extending cells; and one or more springs, each of the one or more springs extending through a slot of a respective cartridge of the one or more cartridges and being positioned and restrained between two adjacent stops of the two or more stops, each spring of the one or more springs being sized to bow between the two stops and bias each of the one or more cartridges in a first position in the one or more cells wherein the cavity is not aligned with the passageway, or in a second position in the one or more cells wherein the cavity is aligned with the passageway.
A styrenic copolymer produced by a living polymerization method, comprising: an isopropenyl aromatic unit represented by the formula: wherein the substituent group R 1 represents hydrogen, or a hydrocarbon radical of -C n H 2n+1 wherein n is an integer number of 1 or more, and a vinyl aromatic unit represented by the formula: wherein the substituent group R 2 represents hydrogen, or a hydrocarbon radical of -C n H 2n+1 wherein n is an integer number of 1 or more,and the substituent group R 3 represents hydrogen or a phenyl radical, wherein the content of said isopropenyl aromatic unit in said styrenic copolymer is in the range of 5 to 95% by weight, the weight-average molecular weight (Mw) of said styrenic copolymer is in the range of 70,000 to 280,000, the ratio (Mw/Mn) of the weight-average molecular weight (Mw) of said styrenic copolymer to the number-average molecular weight (Mn) thereof is in the range of 1.6 to 4.0, and wherein the relationship between the content (% by weight) of said isopropenyl aromatic unit in said styrenic copolymer and the glass-transition temperature (°C) (Tg) of said styrenic copolymer satisfies the formulae (a): 0.12 ⁢ A + 102 ≦ Tg ≦ 0.62 A + 102 in case of 5 ≦ A ≦ 20, - 5.25 × 10 - 5 ⁢ A 3 + 1.09 × 10 - 2 ⁢ A 2 + 1.72 × 10 - 1 ⁢ A + 97 ≦ Tg ≦ - 5.25 × 10 - 5 ⁢ A 3 + 1.09 × 10 - 2 ⁢ A 2 + 1.72 × 10 - 1 ⁢ A + 107 in case of 20 < A ≦ 60, and 1.04 A + 73 ≦ Tg ≦ 0.79 + 98 in case of 60 < A ≦ 95. an isopropenyl aromatic unit represented by the formula: wherein the substituent group R 1 represents hydrogen, or a hydrocarbon radical of -C n H 2n+1 wherein n is an integer number of 1 or more, and a vinyl aromatic unit represented by the formula: wherein the substituent group R 2 represents hydrogen, or a hydrocarbon radical of -C n H 2n+1 wherein n is an integer number of 1 or more,and the substituent group R 3 represents hydrogen or a phenyl radical, wherein the content of said isopropenyl aromatic unit in said styrenic copolymer is in the range of 5 to 95% by weight, the weight-average molecular weight (Mw) of said styrenic copolymer is in the range of 70,000 to 280,000, the ratio (Mw/Mn) of the weight-average molecular weight (Mw) of said styrenic copolymer to the number-average molecular weight (Mn) thereof is in the range of 1.6 to 4.0, and wherein the relationship between the content (% by weight) of said isopropenyl aromatic unit in said styrenic copolymer and the glass-transition temperature (°C) (Tg) of said styrenic copolymer satisfies the formulae (a): 0.12 ⁢ A + 102 ≦ Tg ≦ 0.62 A + 102 in case of 5 ≦ A ≦ 20, - 5.25 × 10 - 5 ⁢ A 3 + 1.09 × 10 - 2 ⁢ A 2 + 1.72 × 10 - 1 ⁢ A + 97 ≦ Tg ≦ - 5.25 × 10 - 5 ⁢ A 3 + 1.09 × 10 - 2 ⁢ A 2 + 1.72 × 10 - 1 ⁢ A + 107 in case of 20 < A ≦ 60, and 1.04 A + 73 ≦ Tg ≦ 0.79 + 98 in case of 60 < A ≦ 95.
A non-volatile memory comprising: a fin structure; a first fin field effect transistor, formed on the fin structure and having a first gate, a first source region, and a first drain region; a second fin field effect transistor, formed on the fin structure and having a second gate, a second drain region, and a second source region coupled to the first drain region; an antifuse structure, formed on the fin structure and having a sharing gate, a single diffusion break isolation structure, a first source/drain region, and a second source/drain region, wherein the single diffusion break isolation structure is formed on the fin structure and formed between the first source/drain region and the second source/drain region, a top surface of the single diffusion break isolation structure is covered by the sharing gate, and the first source/drain region is coupled to the second drain region; a third fin field effect transistor, formed on the fin structure and having a third gate, a third source region, and a third drain region coupled to the second source/drain region; and a fourth fin field effect transistor, formed on the fin structure and having a fourth gate, a fourth source region, and a fourth drain region coupled to the third source region. a fin structure; a first fin field effect transistor, formed on the fin structure and having a first gate, a first source region, and a first drain region; a second fin field effect transistor, formed on the fin structure and having a second gate, a second drain region, and a second source region coupled to the first drain region; an antifuse structure, formed on the fin structure and having a sharing gate, a single diffusion break isolation structure, a first source/drain region, and a second source/drain region, wherein the single diffusion break isolation structure is formed on the fin structure and formed between the first source/drain region and the second source/drain region, a top surface of the single diffusion break isolation structure is covered by the sharing gate, and the first source/drain region is coupled to the second drain region; a third fin field effect transistor, formed on the fin structure and having a third gate, a third source region, and a third drain region coupled to the second source/drain region; and a fourth fin field effect transistor, formed on the fin structure and having a fourth gate, a fourth source region, and a fourth drain region coupled to the third source region.