mhurhangee/ep-ind-claims huggingface dataset:
A housing for an electrical machine having a rotation axis, a rotor assembly including a rotor having a plurality of blades formed thereon, and a controller assembly, the rotor assembly including at least one bearing assembly (20a, 20b), said housing comprising: an endshield comprising an annular center section comprising a bore sized to couple to the at least one bearing assembly (20a, 20b); and a cover coupled to said endshield and comprising: a flange wall extending axially from an inner surface of said cover and formed about a perimeter of said cover; a volute-shaped inner chamber configured to at least partially enclose the rotor coupled to the rotor assembly of the electrical machine; a cooling channel positioned radially outward from said inner chamber, said cooling channel configured to at least partially enclose the controller assembly of the electrical machine; and a volute-shaped curved wall that extends axially from said inner surface and that extends circumferentially in a volute-shaped arc about the rotation axis from said flange wall proximate an air outlet portion of said cover, said curved wall at least partially defining said inner chamber and said cooling channel and configured to isolate the controller assembly from the rotor assembly. an endshield comprising an annular center section comprising a bore sized to couple to the at least one bearing assembly (20a, 20b); and a cover coupled to said endshield and comprising: a flange wall extending axially from an inner surface of said cover and formed about a perimeter of said cover; a volute-shaped inner chamber configured to at least partially enclose the rotor coupled to the rotor assembly of the electrical machine; a cooling channel positioned radially outward from said inner chamber, said cooling channel configured to at least partially enclose the controller assembly of the electrical machine; and a volute-shaped curved wall that extends axially from said inner surface and that extends circumferentially in a volute-shaped arc about the rotation axis from said flange wall proximate an air outlet portion of said cover, said curved wall at least partially defining said inner chamber and said cooling channel and configured to isolate the controller assembly from the rotor assembly. a flange wall extending axially from an inner surface of said cover and formed about a perimeter of said cover; a volute-shaped inner chamber configured to at least partially enclose the rotor coupled to the rotor assembly of the electrical machine; a cooling channel positioned radially outward from said inner chamber, said cooling channel configured to at least partially enclose the controller assembly of the electrical machine; and a volute-shaped curved wall that extends axially from said inner surface and that extends circumferentially in a volute-shaped arc about the rotation axis from said flange wall proximate an air outlet portion of said cover, said curved wall at least partially defining said inner chamber and said cooling channel and configured to isolate the controller assembly from the rotor assembly.
A method for antenna array switching for a User Equipment, UE, the method comprising: detecting, by the UE, at least one orientation parameter of the UE using one or more sensors of the UE; comparing, by the UE, a current signal strength parameter value of one or more serving Antenna Array Modules, AAMs, of the UE with a first threshold value or comparing a non-serving AAM module monitor timer of the UE with a second threshold value; comparing, by the UE, the at least one orientation parameter with a third threshold value based on the current signal strength parameter value of one or more serving AAMs of the UE being less than the first threshold value or based on the non-serving AAM module monitor timer of the UE exceeding the second threshold value; based on the at least one orientation parameter not exceeding the third threshold value, not performing, by the UE, measurements on one or more non-serving AAMs of the UE; based on the at least one orientation parameter exceeding the third threshold value, performing, by the UE, the measurements on the one or more non-serving AAMs of the UE; and selecting, by the UE, at least one of the one or more serving AAMs of the UE and the one or more non-serving AAMs of the UE based on the measurements performed on the one or more non-serving AAMs of the UE. detecting, by the UE, at least one orientation parameter of the UE using one or more sensors of the UE; comparing, by the UE, a current signal strength parameter value of one or more serving Antenna Array Modules, AAMs, of the UE with a first threshold value or comparing a non-serving AAM module monitor timer of the UE with a second threshold value; comparing, by the UE, the at least one orientation parameter with a third threshold value based on the current signal strength parameter value of one or more serving AAMs of the UE being less than the first threshold value or based on the non-serving AAM module monitor timer of the UE exceeding the second threshold value; based on the at least one orientation parameter not exceeding the third threshold value, not performing, by the UE, measurements on one or more non-serving AAMs of the UE; based on the at least one orientation parameter exceeding the third threshold value, performing, by the UE, the measurements on the one or more non-serving AAMs of the UE; and selecting, by the UE, at least one of the one or more serving AAMs of the UE and the one or more non-serving AAMs of the UE based on the measurements performed on the one or more non-serving AAMs of the UE. performing, by the UE, the measurements on the one or more non-serving AAMs of the UE; and selecting, by the UE, at least one of the one or more serving AAMs of the UE and the one or more non-serving AAMs of the UE based on the measurements performed on the one or more non-serving AAMs of the UE.
Method for treating thermal bridges between a pre-slab floor (1; 101) and a wall (2; 102; 202) adjacent to the pre-slab floor, the method comprising the steps of: - bringing thermal insulation elements (6; 106; 206; 306) and structural connection elements (7; 107; 207; 307) of the floor close to a portion of the wall, substantially at the level where a compression slab (9; 109) of the floor must be cast, in such a way as to arrange a thermal insulation element and a structural connection element in an alternating manner along the portion of the wall, each thermal insulation element comprising a block of thermally insulating material and each structural connection element comprising a concrete block (28; 128; 228; 328) comprising reinforcements (29; 129; 229; 329) extending through the concrete block so as to project from either side of the concrete block, each structural connection element being arranged along the wall such that first reinforcements projecting from one side of the concrete block are positioned above the portion of the wall and such that second reinforcements projecting from the other side of the concrete block are positioned at the level of the future compression slab and above a concrete body of a pre-slab of the pre-slab floor, - casting concrete in order to extend the portion of the wall such that the first reinforcements are embedded in the concrete of the extension of the wall and casting the concrete in order to form the compression slab of the pre-slab floor such that the second projecting reinforcements are embedded in the concrete of the compression slab of the pre-slab floor. - bringing thermal insulation elements (6; 106; 206; 306) and structural connection elements (7; 107; 207; 307) of the floor close to a portion of the wall, substantially at the level where a compression slab (9; 109) of the floor must be cast, in such a way as to arrange a thermal insulation element and a structural connection element in an alternating manner along the portion of the wall, each thermal insulation element comprising a block of thermally insulating material and each structural connection element comprising a concrete block (28; 128; 228; 328) comprising reinforcements (29; 129; 229; 329) extending through the concrete block so as to project from either side of the concrete block, each structural connection element being arranged along the wall such that first reinforcements projecting from one side of the concrete block are positioned above the portion of the wall and such that second reinforcements projecting from the other side of the concrete block are positioned at the level of the future compression slab and above a concrete body of a pre-slab of the pre-slab floor, - casting concrete in order to extend the portion of the wall such that the first reinforcements are embedded in the concrete of the extension of the wall and casting the concrete in order to form the compression slab of the pre-slab floor such that the second projecting reinforcements are embedded in the concrete of the compression slab of the pre-slab floor.
A power generation system comprising: a photovoltaic module to generate direct current power; characterised by: a boost side MPPT (maximum power point tracking) controller for determining a maximum power point for the power generation system; an inverter side MPPT controller operable to sense voltages and current from the PV module; a boost converter for receiving control signals from the boost side MPPT controller to boost the power from the PV module to a threshold voltage required to inject sinusoidal currents into the grid; a direct current to alternating current multilevel inverter to supply the power from the PV module to a power grid; a split DC link connecting the boost converter to the multilevel inverter; a first bypass circuit for bypassing the boost converter when an input voltage of the DC to AC multilevel inverter is higher than or equal to the threshold voltage, and a second bypass circuit, wherein the inverter side MPPT controller is operable to receive a signal from the second bypass circuit to determine when the second bypass circuit is working, said inverter side MPPT controller being operable to provide switching command signals to the multilevel inverter so as to extract maximum power from the PV module. a photovoltaic module to generate direct current power; a boost side MPPT (maximum power point tracking) controller for determining a maximum power point for the power generation system; an inverter side MPPT controller operable to sense voltages and current from the PV module; a boost converter for receiving control signals from the boost side MPPT controller to boost the power from the PV module to a threshold voltage required to inject sinusoidal currents into the grid; a direct current to alternating current multilevel inverter to supply the power from the PV module to a power grid; a split DC link connecting the boost converter to the multilevel inverter; a first bypass circuit for bypassing the boost converter when an input voltage of the DC to AC multilevel inverter is higher than or equal to the threshold voltage, and a second bypass circuit, wherein the inverter side MPPT controller is operable to receive a signal from the second bypass circuit to determine when the second bypass circuit is working, said inverter side MPPT controller being operable to provide switching command signals to the multilevel inverter so as to extract maximum power from the PV module.
A pharmaceutical composition for use in reducing a risk of cardiovascular death, coronary revascularization, and/or unstable angina in a subject on statin therapy, wherein the subject has a fasting baseline triglyceride level of 135 mg/dl to 500 mg/dl and has established cardiovascular disease or a high risk of developing cardiovascular disease, wherein the pharmaceutical composition comprises 4 g of eicosapentaenoic acid ethyl ester, administered to the subject per day, and wherein the eicosapentaenoic acid ethyl ester comprises at least 96 wt.% of all omega-3 fatty acids in the pharmaceutical composition.
A system comprising: an implant (105, 113, 203, 405, 450, 470, 801, 902) for closing an opening in tissue such as a fistula or a sinus, the implant comprising a coil having a proximal driver end and a distal tissue insertion end, and having an outer diameter that is substantially uniform along the length of the coil and an inner diameter that is tapered inwardly from the distal tissue insertion end of the coil to the proximal driver end of the coil; and a delivery device which is configured for delivering the implant into tissue, wherein the delivery device comprises a delivery coil (101, 412, 463, 820, 900) having a proximal end and a distal end and wherein the delivery coil comprises a distal tip section (102, 821) which is adapted for piercing tissue. an implant (105, 113, 203, 405, 450, 470, 801, 902) for closing an opening in tissue such as a fistula or a sinus, the implant comprising a coil having a proximal driver end and a distal tissue insertion end, and having an outer diameter that is substantially uniform along the length of the coil and an inner diameter that is tapered inwardly from the distal tissue insertion end of the coil to the proximal driver end of the coil; and a delivery device which is configured for delivering the implant into tissue, wherein the delivery device comprises a delivery coil (101, 412, 463, 820, 900) having a proximal end and a distal end and wherein the delivery coil comprises a distal tip section (102, 821) which is adapted for piercing tissue.
A composition comprising a matrix material and a magnetic material distributed in the matrix material, wherein the matrix material comprises pores having mean pore diameter in range of about 10 μm to about 1000 μm, and wherein porosity, pore size, pore connectivity and/or specific volume of the matrix material undergoes a change from a first value to a second value in response to an electromagnetic signal.
A distribution unit for milk samples, wherein the distribution unit comprises a flow passage, a valve controlled milk inlet port (p 1) through which milk is delivered to the flow passage, a pump port (pg) through which a sampling pump communicates with the flow passage, and at least two valve controlled milk sampling outlet ports (p 2 -p 5) through which milk samples are delivered from the flow passage to a respective milk sample analyzing unit (A-D), wherein the flow passage has a longitudinal extension between a first end and a second end, characterized in that said milk sampling outlet ports (p 2 -p 5) are connected to the flow passage in positions located between the connection position of the milk inlet port (p 1) and the connection position of the pump port (p 9).
A power interface for a mobile terminal, comprising: a plug shell, wherein a first baffle is arranged in the plug shell; an encapsulation member, wherein the encapsulation member comprises a first encapsulation portion and a second encapsulation portion, and the first encapsulation portion and the second encapsulation portion are configured to match with and cooperate with each other; a plug body, arranged in the plug shell and wrapped by the encapsulation member, wherein a snap-fit flange disposed on the second encapsulation portion is arranged on the plug body; and a second baffle, located in the plug shell and connected to the plug shell, wherein the second baffle is spaced apart from the first baffle, the snap-fit flange is sandwiched between the first baffle and the second baffle; wherein the plug body is configured to be connected to a circuit board and comprises at least one pair of power pins and a plurality of data pins, and each pair of power pins comprises a pair of sub-pins spaced apart from each other in an up-down direction; the encapsulation member is configured to fix the at least one pair of power pins and the plurality of data pins; characterized in that at least one of the pair of sub-pins comprises an expanded portion, and the expanded portion has a cross-sectional area larger than that of each of the plurality of data pins of the plug body to increase a current load of the at least one of the pair of sub-pins; a recess is defined in the expanded portion at a position that is close to an end of the at least one of the pair of sub-pins away from the second baffle. a plug shell, wherein a first baffle is arranged in the plug shell; an encapsulation member, wherein the encapsulation member comprises a first encapsulation portion and a second encapsulation portion, and the first encapsulation portion and the second encapsulation portion are configured to match with and cooperate with each other; a plug body, arranged in the plug shell and wrapped by the encapsulation member, wherein a snap-fit flange disposed on the second encapsulation portion is arranged on the plug body; and a second baffle, located in the plug shell and connected to the plug shell, wherein the second baffle is spaced apart from the first baffle, the snap-fit flange is sandwiched between the first baffle and the second baffle; wherein the plug body is configured to be connected to a circuit board and comprises at least one pair of power pins and a plurality of data pins, and each pair of power pins comprises a pair of sub-pins spaced apart from each other in an up-down direction; the encapsulation member is configured to fix the at least one pair of power pins and the plurality of data pins; characterized in that at least one of the pair of sub-pins comprises an expanded portion, and the expanded portion has a cross-sectional area larger than that of each of the plurality of data pins of the plug body to increase a current load of the at least one of the pair of sub-pins; a recess is defined in the expanded portion at a position that is close to an end of the at least one of the pair of sub-pins away from the second baffle.
A gas-liquid contactor (21A, 21B, 21C) for spraying liquid downward into a contact column in which gas drifts upward and passes, so as to bring the gas drifting upward and the liquid into contact with each other, the gas-liquid contactor (21A, 21B, 21C) comprising: a wall-surface dedicated nozzle provided along a wall surface in the contact column, for spraying the liquid toward inside of the contact column; and a liquid dispersion nozzle provided more inside in the contact column than the wall-surface dedicated nozzle, for uniformly spraying the liquid into the contact column, characterized in that the wall surface dedicated nozzle includes a nozzle body and a shield plate that is provided integral with the nozzle body in an extended condition on a side of the wall surface such that the liquid sprayed from a nozzle hole of the wall-dedicated nozzle hits the shield plate and is sprayed to the inside of the contact column while suppressing that the liquid is sprayed on the side of the wall surface of the contact column. a wall-surface dedicated nozzle provided along a wall surface in the contact column, for spraying the liquid toward inside of the contact column; and a liquid dispersion nozzle provided more inside in the contact column than the wall-surface dedicated nozzle, for uniformly spraying the liquid into the contact column, characterized in that the wall surface dedicated nozzle includes a nozzle body and a shield plate that is provided integral with the nozzle body in an extended condition on a side of the wall surface such that the liquid sprayed from a nozzle hole of the wall-dedicated nozzle hits the shield plate and is sprayed to the inside of the contact column while suppressing that the liquid is sprayed on the side of the wall surface of the contact column.
A method for depositing a thin barrier oxide film on a surface, comprising: generating an unstable oxygen radical species from an oxygen-containing compound, wherein the oxygen-containing compound, when at room temperature, consists essentially of carbon dioxide (CO 2), or a mixture of carbon dioxide (CO 2) and nitrous oxide (N 2 O), that includes less than 3% mole fraction normal oxygen gas (O 2); and repeatedly alternately exposing the surface to the unstable oxygen radical species and to a precursor gas that chemisorbs to the surface as a chemisorbed species, while preventing the unstable oxygen radical species from mixing with the precursor gas, the unstable oxygen radical species reactive with the chemisorbed species at the surface to thereby form a thin oxide film on the surface. generating an unstable oxygen radical species from an oxygen-containing compound, wherein the oxygen-containing compound, when at room temperature, consists essentially of carbon dioxide (CO 2), or a mixture of carbon dioxide (CO 2) and nitrous oxide (N 2 O), that includes less than 3% mole fraction normal oxygen gas (O 2); and repeatedly alternately exposing the surface to the unstable oxygen radical species and to a precursor gas that chemisorbs to the surface as a chemisorbed species, while preventing the unstable oxygen radical species from mixing with the precursor gas, the unstable oxygen radical species reactive with the chemisorbed species at the surface to thereby form a thin oxide film on the surface.
A method of determining port status in a television receiver including a plurality of signal input ports and including a main-screen signal processor for displaying a first image on a main screen of the television receiver and a sub-screen signal processor for displaying a second image on a sub-screen of the main screen, the method comprising: detecting a signal presence (S 250) at at least one of the plurality of signal input ports via the sub-screen signal processor, to determine whether the corresponding input signal exists, by sequentially setting an input mode in correspondence to at least one of the plurality of signal input ports; recognizing as a valid signal input port (S 260) where the signal presence is detected; turning off the sub-screen (S 220); displaying OSD informations (S 280) indicative of the recognized valid signal input port for distinguishing between a valid signal input port (S 260) and an invalid signal input port (S 270), wherein the displayed OSD information includes at least one valid signal input port and at least one invalid signal input port, and the valid signal input port is distinguished from the invalid signal input port by using a different marking or a highlight. detecting a signal presence (S 250) at at least one of the plurality of signal input ports via the sub-screen signal processor, to determine whether the corresponding input signal exists, by sequentially setting an input mode in correspondence to at least one of the plurality of signal input ports; recognizing as a valid signal input port (S 260) where the signal presence is detected; turning off the sub-screen (S 220); displaying OSD informations (S 280) indicative of the recognized valid signal input port for distinguishing between a valid signal input port (S 260) and an invalid signal input port (S 270), wherein the displayed OSD information includes at least one valid signal input port and at least one invalid signal input port, and the valid signal input port is distinguished from the invalid signal input port by using a different marking or a highlight.
A system for cutting a bone of a patient, comprising: a motor; a rotating shaft drivingly coupled to the motor; a support tube positioned around the rotating shaft and supporting the rotating shaft at a plurality of locations; a plurality of steering wires coupled to the support tube; and a bone cutter at a distal end of the rotating shaft, characterized in that the support tube includes a proximal section and a distal section, and the proximal section is independently steerable from the distal section using the plurality of steering wires. a motor; a rotating shaft drivingly coupled to the motor; a support tube positioned around the rotating shaft and supporting the rotating shaft at a plurality of locations; a plurality of steering wires coupled to the support tube; and a bone cutter at a distal end of the rotating shaft, characterized in that the support tube includes a proximal section and a distal section, and the proximal section is independently steerable from the distal section using the plurality of steering wires.