mhurhangee/ep-ind-claims huggingface dataset:
A Geostationary, GEO, communication satellite comprising: an antenna system comprising a plurality of antennas, each of the antennas configured to provide a communication coverage region having an adjustable bandwidth for a terrestrial coverage area while the antenna is in an active state and the satellite is in an orbit above Earth; a front-end subsystem communicatively coupled to the antenna system, the front-end subsystem comprising, for at least one user slice, an input side including an input filter and an analog-to-digital converter, and an output side including an output filter and a digital-to-analog converter, wherein each of one or more user slices are configured to communicate with one or more distinct gateway slices and the one or more distinct gateway slices are configured to combine or split the one or more user slices with the input side or the output side of the front-end subsystem; and a software defined radio, SDR, communicatively coupled to the antenna system via one or more user slices combined or split with the input side or the output side of the front-end subsystem, and wherein the SDR, in response to a surge modification request, modifies a throughput of each active antenna by increasing or decreasing a share of a satellite power budget allotted to the antenna by deactivating or activating a previously active or previously inactive antenna, respectively. an antenna system comprising a plurality of antennas, each of the antennas configured to provide a communication coverage region having an adjustable bandwidth for a terrestrial coverage area while the antenna is in an active state and the satellite is in an orbit above Earth; a front-end subsystem communicatively coupled to the antenna system, the front-end subsystem comprising, for at least one user slice, an input side including an input filter and an analog-to-digital converter, and an output side including an output filter and a digital-to-analog converter, wherein each of one or more user slices are configured to communicate with one or more distinct gateway slices and the one or more distinct gateway slices are configured to combine or split the one or more user slices with the input side or the output side of the front-end subsystem; and a software defined radio, SDR, communicatively coupled to the antenna system via one or more user slices combined or split with the input side or the output side of the front-end subsystem, and wherein the SDR, in response to a surge modification request, modifies a throughput of each active antenna by increasing or decreasing a share of a satellite power budget allotted to the antenna by deactivating or activating a previously active or previously inactive antenna, respectively.
An inkjet ink, comprising: water; a wetting agent; a surfactant; and a pigment, wherein the wetting agent contains at least an amide compound represented by the following structural formula: water; a wetting agent; a surfactant; and a pigment, wherein the wetting agent contains at least an amide compound represented by the following structural formula:
A method for manufacturing a component from a composite material, more particularly a part of a bicycle, wherein fibers consisting of a liquid crystal polymer are wetted with a resin that is diluted with a solvent and a fiber mat is made from the wetted fibers, wherein the fiber mat is heated, and wherein the fiber mat is pressed to form a component, wherein the fiber mat that is made of fibers consisting of a liquid crystal polymer is stacked with fibers mats made of carbon fibers and is pressed to form the component, characterized in that, initially, the wetted fibers are stored for at least one hour at more than 60 °C to remove the solvent at least in part prior to pressing the manufactured fiber mat.
Polymer composition comprising: a. 80 to 50 wt% of one or more semi- aromatic polyamides and b. 20 to 50 wt% of one or more of aliphatic polyamides and c.1 at least one white pigment as secondary component, in an amount of at least 10 wt.%, based on the total weight of the composition, and c.2 one or more other secondary components in a total amount of at least 10 wt.% based on the total weight of the composition, wherein one of the secondary component is a reinforcing fiber selected from synthetic polymeric fibers and glass fibers, and wherein the total amount of all secondary components is at most 60 wt%, based on the total weight of the composition; wherein the sum of the amount of semi-aromatic and aliphatic polyamide is 100 wt% and wherein: i. the semi-aromatic polyamide is derived from one or more aliphatic diamine monomers containing 4 to 12 carbon atoms and one or more benzene dicarboxylic acid monomers and ii. the aliphatic polyamide is derived from one or more aliphatic diamine monomers containing 4 to 10 carbon atoms and one or more aliphatic dicarboxylic acids with 6 to 12 carbon atoms, with the proviso that no additional thermally conductive material having a thermal conductivity of at least 1 watts/m.K determined according to the method described in ASTM- E1461-07 is present in the composition. a. 80 to 50 wt% of one or more semi- aromatic polyamides and b. 20 to 50 wt% of one or more of aliphatic polyamides and c.1 at least one white pigment as secondary component, in an amount of at least 10 wt.%, based on the total weight of the composition, and c.2 one or more other secondary components in a total amount of at least 10 wt.% based on the total weight of the composition, wherein one of the secondary component is a reinforcing fiber selected from synthetic polymeric fibers and glass fibers, c.1 at least one white pigment as secondary component, in an amount of at least 10 wt.%, based on the total weight of the composition, and c.2 one or more other secondary components in a total amount of at least 10 wt.% based on the total weight of the composition, wherein one of the secondary component is a reinforcing fiber selected from synthetic polymeric fibers and glass fibers, i. the semi-aromatic polyamide is derived from one or more aliphatic diamine monomers containing 4 to 12 carbon atoms and one or more benzene dicarboxylic acid monomers and ii. the aliphatic polyamide is derived from one or more aliphatic diamine monomers containing 4 to 10 carbon atoms and one or more aliphatic dicarboxylic acids with 6 to 12 carbon atoms,
A bonding system comprising: a supporting jig having a mounting surface on which bonding substrates are mounted; a bonding device that sandwiches and welds the bonding substrates between the bonding device and the mounting surface; an articulated robot to which the bonding device is attached; and a control unit that controls the articulated robot and the bonding device, characterized in that the bonding system further comprises a temperature adjustment device that adjusts a temperature of the mounting surface. a supporting jig having a mounting surface on which bonding substrates are mounted; a bonding device that sandwiches and welds the bonding substrates between the bonding device and the mounting surface; an articulated robot to which the bonding device is attached; and a control unit that controls the articulated robot and the bonding device, characterized in that the bonding system further comprises a temperature adjustment device that adjusts a temperature of the mounting surface.
An electrosurgical system comprising: an electrosurgical generator including: an output stage configured to generate the electrosurgical energy at a plurality of radio frequencies; a plurality of sensors configured to sense a voltage waveform and a current waveform of the electrosurgical energy; and a controller coupled to the output stage and the plurality of sensors; and an instrument (120, 140, 255) coupled to the electrosurgical generator and configured to supply the electrosurgical energy to the tissue, wherein the controller is further configured to calculate at least one parasitic parameter, each parasitic parameter being calculated based on the electrosurgical energy at the plurality of frequencies and to control the output stage based on the at least one parasitic parameter, characterized in that the controller is configured to calculate an output impedance based on the sensed voltage and current waveforms at each of the plurality of frequencies, to calculate the at least one parasitic parameter based on the output impedances and to calculate an impedance of the tissue based on the parasitic parameters. an electrosurgical generator including: an output stage configured to generate the electrosurgical energy at a plurality of radio frequencies; a plurality of sensors configured to sense a voltage waveform and a current waveform of the electrosurgical energy; and a controller coupled to the output stage and the plurality of sensors; and an output stage configured to generate the electrosurgical energy at a plurality of radio frequencies; a plurality of sensors configured to sense a voltage waveform and a current waveform of the electrosurgical energy; and a controller coupled to the output stage and the plurality of sensors; and an instrument (120, 140, 255) coupled to the electrosurgical generator and configured to supply the electrosurgical energy to the tissue, wherein the controller is further configured to calculate at least one parasitic parameter, each parasitic parameter being calculated based on the electrosurgical energy at the plurality of frequencies and to control the output stage based on the at least one parasitic parameter, characterized in that the controller is configured to calculate an output impedance based on the sensed voltage and current waveforms at each of the plurality of frequencies, to calculate the at least one parasitic parameter based on the output impedances and to calculate an impedance of the tissue based on the parasitic parameters.
Filter to be used in the expiratory branch of a ventilator, comprising - a housing (10; 110) arranged with an inlet passage (12; 112) and an outlet passage (14; 114), - a main viral/bacteria element (28; 122) arranged in the housing, - a pre-filter member (20; 120) arranged in the housing, the pre-filter member (20; 120) comprising an air permeable material capable of collecting medicament droplets in the air stream through said main filter element (28; 122), characterised in - a dividing wall (22; 116) arranged inside said housing, dividing the interior of the housing in two compartments (30, 32; 124, 126), one (32; 126) in communication with the inlet passage (12; 112) and one (30; 124) in communication with the outlet passage (14; 114), which compartments (30, 32; 124, 126) are capable of collecting condensate on either side of the dividing wall (22; 116), - an opening (24; 118) arranged in the dividing wall (22; 116), - wherein the main viral/bacteria filter element (28; 122) is arranged in the compartment (30; 124) that is in communication with the outlet passage (14; 126) and attached to one side of the dividing wall (22; 116) such that it is not contacting collected condensate, and - wherein the pre-filter member (20; 120) is arranged in the compartment (32; 126) that is in communication with the inlet passage (12; 112) and placed in the opening (24, 118) in the dividing wall (22; 116) before said main filter element (28; 122) as seen in the flow direction such that it is not contacting collected condensate. - a housing (10; 110) arranged with an inlet passage (12; 112) and an outlet passage (14; 114), - a main viral/bacteria element (28; 122) arranged in the housing, - a pre-filter member (20; 120) arranged in the housing, the pre-filter member (20; 120) comprising an air permeable material capable of collecting medicament droplets in the air stream through said main filter element (28; 122), - a dividing wall (22; 116) arranged inside said housing, dividing the interior of the housing in two compartments (30, 32; 124, 126), one (32; 126) in communication with the inlet passage (12; 112) and one (30; 124) in communication with the outlet passage (14; 114), which compartments (30, 32; 124, 126) are capable of collecting condensate on either side of the dividing wall (22; 116), - an opening (24; 118) arranged in the dividing wall (22; 116), - wherein the main viral/bacteria filter element (28; 122) is arranged in the compartment (30; 124) that is in communication with the outlet passage (14; 126) and attached to one side of the dividing wall (22; 116) such that it is not contacting collected condensate, and - wherein the pre-filter member (20; 120) is arranged in the compartment (32; 126) that is in communication with the inlet passage (12; 112) and placed in the opening (24, 118) in the dividing wall (22; 116) before said main filter element (28; 122) as seen in the flow direction such that it is not contacting collected condensate.
An arrangement, especially for a motor vehicle, comprising - a housing for accommodating a technical component, wherein the technical component is an energy storage module with electrochemical cells, - at least one pressure equalisation element integrated in the housing, - a cooling device for cooling the technical component in the housing, - a temperature measurement site for providing a temperature value, and - a control device for actuating the cooling device, wherein the control device is designed in order, • upon a temperature limit value being exceeded by the measured temperature value in the housing, to increase a cooling capacity of the cooling device in order to attain a first temperature value in the housing, and • after the increase, to reduce the cooling capacity, starting from a measured second temperature value in the housing, such that a thermal residual energy of the technical component is sufficient to evaporate the condensed water in the housing which is caused by the cooling, the second temperature value being higher than the first temperature value. - a housing for accommodating a technical component, wherein the technical component is an energy storage module with electrochemical cells, - at least one pressure equalisation element integrated in the housing, - a cooling device for cooling the technical component in the housing, - a temperature measurement site for providing a temperature value, and - a control device for actuating the cooling device, wherein the control device is designed in order, • upon a temperature limit value being exceeded by the measured temperature value in the housing, to increase a cooling capacity of the cooling device in order to attain a first temperature value in the housing, and • after the increase, to reduce the cooling capacity, starting from a measured second temperature value in the housing, such that a thermal residual energy of the technical component is sufficient to evaporate the condensed water in the housing which is caused by the cooling, the second temperature value being higher than the first temperature value. • upon a temperature limit value being exceeded by the measured temperature value in the housing, to increase a cooling capacity of the cooling device in order to attain a first temperature value in the housing, and • after the increase, to reduce the cooling capacity, starting from a measured second temperature value in the housing, such that a thermal residual energy of the technical component is sufficient to evaporate the condensed water in the housing which is caused by the cooling, the second temperature value being higher than the first temperature value.
A chip supplying apparatus which supplies a chip to a mounting machine which mounts the chip on a substrate, comprising: a wafer table which holds a wafer sheet at a position where an operation head of the mounting machine can receive the chip, wherein the wafer table includes a frame, a stopper which is adapted to abut against a front end of the wafer sheet, said chip supplying apparatus being characterized in that: - the stopper is fixed to the center of a front portion of the frame; said table further comprises the following elements: - a pair of clamp mechanisms (64, 66) which is supported by the frame and which clamps both side ends of the wafer sheet (w), wherein - the pair of clamp mechanisms (64, 66) is configured to change its position in the right-and-left direction with respect to the frame in multiple steps. a wafer table which holds a wafer sheet at a position where an operation head of the mounting machine can receive the chip, wherein the wafer table includes a frame, a stopper which is adapted to abut against a front end of the wafer sheet, said chip supplying apparatus being characterized in that: - the stopper is fixed to the center of a front portion of the frame; said table further comprises the following elements: - a pair of clamp mechanisms (64, 66) which is supported by the frame and which clamps both side ends of the wafer sheet (w), wherein - the pair of clamp mechanisms (64, 66) is configured to change its position in the right-and-left direction with respect to the frame in multiple steps. - the stopper is fixed to the center of a front portion of the frame; said table further comprises the following elements: - a pair of clamp mechanisms (64, 66) which is supported by the frame and which clamps both side ends of the wafer sheet (w), wherein - the pair of clamp mechanisms (64, 66) is configured to change its position in the right-and-left direction with respect to the frame in multiple steps.
Coin identification device for automatically counting, sorting and/or checking the authenticity of various coins, comprising at least one remanence sensor for detecting a magnetic remanence of a coin, wherein the remanence sensor is an anisotropic magnetoresistive sensor (AMR sensor) for detecting a spreading of the magnetic fields of the coin that depends on a spatial direction, wherein a magnetizing device for premagnetizing the coin is arranged on a coin transport route (T M) in front of the remanence sensor, characterized in that the remanence sensor comprises a sensor unit with a sensor axis and a further sensor unit with a further sensor axis, wherein the sensor axis is shifted relative to the further sensor axis by an angle (α).
A collapsible, transluminally deliverable embolic protection device for temporarily positioning in the aortic arch for deflection of embolic debris from the ascending aorta to the descending aorta, said embolic protection device having: a frame with a periphery and a blood permeable unit within said periphery; a transluminal delivery unit connectable or connected to said protection unit at a connection region and characterized in that at least one tether arranged to apply a tractive force being a pulling force for lifting the embolic protection device in a coronal direction, wherein said tether is arranged movable relative said transluminal delivery unit; wherein said tether is distally connected to said device at a location offset said connection region of said transluminal delivery unit; and wherein said embolic protection device is adapted to be placed across the apex of the aorta for preventing emboli from flowing into the carotid arteries. a frame with a periphery and a blood permeable unit within said periphery; a transluminal delivery unit connectable or connected to said protection unit at a connection region and characterized in that at least one tether arranged to apply a tractive force being a pulling force for lifting the embolic protection device in a coronal direction, wherein said tether is arranged movable relative said transluminal delivery unit; wherein said tether is distally connected to said device at a location offset said connection region of said transluminal delivery unit; and wherein said embolic protection device is adapted to be placed across the apex of the aorta for preventing emboli from flowing into the carotid arteries.
A method for producing an MSE-type zeolite comprising the steps of: mixing a silica source, an alumina source, an alkali source, tetraethylammonium ions and water so as to obtain a reaction mixture having a composition represented by molar ratios indicated below: SiO 2/ Al 2 O 3 = 10 or more and 100 or less, (Na 2 O+K 2 O)/SiO 2 = 0.15 or more and 0.50 or less, K 2 O/(Na 2 O+K 2 O) = 0.05 or more and 0.7 or less, TEA 2 O/SiO 2 = 0.08 or more and 0.20 or less and H 2 O/SiO 2 = 5 or more and 50 or less (in the formula, TEA represents tetraethylammonium ion); using an MSE-type zeolite having a SiO 2 /Al 2 O 3 molar ratio of 12 or more and 25 or less as a seed crystal and adding this to the reaction mixture at a ratio of 5% by mass or more and 30% by mass or less with respect to the silica component in the reaction mixture; and heating the reaction mixture to which the seed crystal has been added, at a temperature of not less than 100°C and less than 200°C in a hermetically sealed manner. mixing a silica source, an alumina source, an alkali source, tetraethylammonium ions and water so as to obtain a reaction mixture having a composition represented by molar ratios indicated below: SiO 2/ Al 2 O 3 = 10 or more and 100 or less, (Na 2 O+K 2 O)/SiO 2 = 0.15 or more and 0.50 or less, K 2 O/(Na 2 O+K 2 O) = 0.05 or more and 0.7 or less, TEA 2 O/SiO 2 = 0.08 or more and 0.20 or less and H 2 O/SiO 2 = 5 or more and 50 or less (in the formula, TEA represents tetraethylammonium ion); SiO 2/ Al 2 O 3 = 10 or more and 100 or less, (Na 2 O+K 2 O)/SiO 2 = 0.15 or more and 0.50 or less, K 2 O/(Na 2 O+K 2 O) = 0.05 or more and 0.7 or less, TEA 2 O/SiO 2 = 0.08 or more and 0.20 or less and H 2 O/SiO 2 = 5 or more and 50 or less (in the formula, TEA represents tetraethylammonium ion); using an MSE-type zeolite having a SiO 2 /Al 2 O 3 molar ratio of 12 or more and 25 or less as a seed crystal and adding this to the reaction mixture at a ratio of 5% by mass or more and 30% by mass or less with respect to the silica component in the reaction mixture; and heating the reaction mixture to which the seed crystal has been added, at a temperature of not less than 100°C and less than 200°C in a hermetically sealed manner.
Controller device for use in a system for communication via satellite between a gateway and a plurality of terminals, said controller device comprising calculation means arranged to calculate a time-frequency plan for transmitting one or more burst signals from at least one terminal of a satellite network, satnet, and arranged to transmit a transmit information to each terminal from said at least one terminal based on said calculated time-frequency plan in order to allow said terminal to transmit a transmit burst signal comprising one or more forward error correction words, said transmit information for a first class of terminals comprising configuration information on one or more transmit burst signals to allow said terminal of said first class of terminals to transmit said one or more transmit burst signals in a frame, each transmit burst signal being configured with said configuration information and having a time duration less than or equal to a duration of said frame, wherein said configuration information comprises information about at least one of a symbol rate based on signal quality taking into account phase noise, power based on signal-to-distortion ratio estimation, location of groups of pilot symbols based on signal quality taking into account phase noise, size of groups of pilot symbols in said transmit burst signal based on signal quality taking into account phase noise, header length based on signal-to-distortion ratio estimation.