mhurhangee/ep-ind-claims huggingface dataset:
A wastewater treatment plant; the plant comprising separating equipment for separating the solid particles from the liquid part; wherein said separating equipment comprises, in turn, inlet means (101D*) and outlet means (101E*), which are substantially arranged in line along a common directrix; wherein in the fluid mass, there is present, between said inlet means (101D*) and said outlet means (101E*), at least one fluid-dynamic profile (70, 75), which is suited to help the detachment of the solid particles from the liquid part; said first fluid-dynamic profile consisting of a three-dimensional surface with a substantially curvilinear profile; and wherein said separating equipment comprises, furthermore, a second fluid-dynamic profile, said two fluid-dynamic profiles (70, 75) defining between one another a first preferential flow channel of the liquid mass; said plant being characterised in that it is provided with a second preferential flow channel defined, on one side, by said second fluid-dynamic profile and, on the other, by a lateral face of a central tank; said second fluid-dynamic profile consisting of a substantially curved three dimensional surface; and in that said second fluid-dynamic profile is provided with a convexity opposed to that of said first fluid-dynamic profile in order to provide said first preferential channel with a wide inlet portion, which narrows at a certain point before widening once again towards the free surface of the liquid.
A power transmission system for improving the capacity of a non-sinusoidal alternating current transmission in an urban power grid, the power transmission system comprising a first waveform conversion system and a third waveform conversion system for converting a sine wave into an alternating square wave, and a second waveform conversion system and a fourth waveform conversion system for converting the alternating square wave into a sine wave, wherein the first waveform conversion system is connected with the second waveform conversion system via a first polar lead and a second polar lead; and the third waveform conversion system is connected with the fourth waveform conversion system via a third polar lead; the power transmission system comprises a first switch handover device at a first end of the first and second polar leads (L1, L2), a second switch handover device at a second end of the first and second polar leads (L1, L2), a third switch handover device at a first end of the third polar lead, and a fourth switch handover device at a second end of the third polar lead, wherein the switch handover devices are thyristor fling-cut switches or switch devices based on turn-off power electronic devices configured to reverse voltage polarities of the first, second and third polar leads; wherein the first waveform conversion system comprises an alternating current transformer, a positive polar voltage converter, a negative polar voltage converter and the first switch handover device; wherein respective input ends of the positive and negative polar voltage converters (VSC1, VSC2) are adapted to be connected with a first alternating current system via the alternating current transformer; wherein the positive electrode of a direct current clamping capacitor of the positive polar voltage converter is connected with a first input end of the first switch handover device, while the negative electrode of the direct current clamping capacitor of the positive polar voltage converter is grounded; the negative electrode of a direct current clamping capacitor of the negative polar voltage converter is connected with a second input end of the first switch handover device, while the positive electrode of the direct current clamping capacitor of the negative polar voltage converter is grounded; and respective output ends of the positive polar voltage converter and the negative polar voltage converter are separately connected via the first switch handover device and the first and second polar leads (L1, L2) with the second switch handover device of the second waveform conversion system.
A kit-of-parts comprising: a. an anti-PDGF-CC antibody and an anti-estrogen, or b. an inhibitor of PDGF-R and an anti-estrogen, wherein said inhibitor of PDGF-R is imatinib, for use in the treatment of ER-negative breast cancer in an individual in need thereof. a. an anti-PDGF-CC antibody and an anti-estrogen, or b. an inhibitor of PDGF-R and an anti-estrogen, wherein said inhibitor of PDGF-R is imatinib,
A circuit board (100, 500) comprising: a substrate (102, 502); a microfluidic channel structure (106, 508) disposed on the substrate, the microfluidic channel structure comprising liquid metal disposed in a microfluidic channel, the microfluidic channel structure formed in at least one of polymeric organosilicon material or thermoplastic polymer material; and a pump (120, 510) coupled to the microfluidic channel structure (106, 508), wherein the pump (120, 510) is to pump the liquid metal through the microfluidic channel to actively cool at least a portion of the circuit board (100, 500), wherein the microfluidic channel structure is disposed in a ground plane of the circuit board. a substrate (102, 502); a microfluidic channel structure (106, 508) disposed on the substrate, the microfluidic channel structure comprising liquid metal disposed in a microfluidic channel, the microfluidic channel structure formed in at least one of polymeric organosilicon material or thermoplastic polymer material; and a pump (120, 510) coupled to the microfluidic channel structure (106, 508), wherein the pump (120, 510) is to pump the liquid metal through the microfluidic channel to actively cool at least a portion of the circuit board (100, 500), wherein the microfluidic channel structure is disposed in a ground plane of the circuit board.
A method comprising: determining a location of each of a plurality of electrodes distributed on a torso of a patient; selecting a model torso from a database of pre-stored model torsos; projecting, with a processing unit, the locations of the plurality of electrodes onto a surface of a model torso; receiving, by the processing unit, a torso-surface potential signal sensed by each of the plurality of electrodes; projecting, by the processing unit, each of the torso-surface potential signals onto a respective location on the surface of the model torso based on the determined locations of the electrodes; selecting a model heart from a database of pre-stored model hearts; calculating, by the processing unit, a set of epicardial potentials for the model heart, within the model torso based on the projected torso-surface potential signals and a location of the model heart within the model torso; determining a set of cardiac activation-times for the model heart from the set of epicardial potentials; and determining an index of electrical dyssynchrony from the cardiac activation times, the index of electrical dysynchrony being a range of activation times computed as the difference between the maximum and the minimum cardiac activation time. determining a location of each of a plurality of electrodes distributed on a torso of a patient; selecting a model torso from a database of pre-stored model torsos; projecting, with a processing unit, the locations of the plurality of electrodes onto a surface of a model torso; receiving, by the processing unit, a torso-surface potential signal sensed by each of the plurality of electrodes; projecting, by the processing unit, each of the torso-surface potential signals onto a respective location on the surface of the model torso based on the determined locations of the electrodes; selecting a model heart from a database of pre-stored model hearts; calculating, by the processing unit, a set of epicardial potentials for the model heart, within the model torso based on the projected torso-surface potential signals and a location of the model heart within the model torso; determining a set of cardiac activation-times for the model heart from the set of epicardial potentials; and determining an index of electrical dyssynchrony from the cardiac activation times, the index of electrical dysynchrony being a range of activation times computed as the difference between the maximum and the minimum cardiac activation time.
An actuator device comprising an actuator housing, a driving motor attached to the actuator housing, which driving motor is provided with a motor spindle, the motor spindle being displaceably engaged with an actuator spindle via a nut, and where an auxiliary frame which can be displaced relative to the actuator spindle and biased by use of the driving motor, and which can be releasably coupled to the actuator housing, is arranged to displace the actuator spindle independently of the motor, characterized in that the nut is releasably coupled to the actuator spindle, thereby being arranged to bias the auxiliary frame while disengaged from the actuator spindle.
A protective helmet having multiple protective zones, comprising an inner shell having a first inner surface and a first outer surface: an outer shell having a second inner surface and a second outer surface, said outer shell functionally attached to said inner shell; an elastomeric zone between said first outer surface and said second inner surface; and a plurality of sinusoidal springs (208, 308) positioned in said elastomeric zone, each of the plurality of sinusoidal springs (208, 308) comprising: a first end and a second end; characterized by a plurality of energy dissipation devices (215, 221, 300) arranged between the inner and outer shells (204; 202); and wherein the second end of each of the plurality of sinusoidal springs (208, 308) is connected to one of said plurality of energy dissipation devices (215, 221, 300). an outer shell having a second inner surface and a second outer surface, said outer shell functionally attached to said inner shell; an elastomeric zone between said first outer surface and said second inner surface; and a plurality of sinusoidal springs (208, 308) positioned in said elastomeric zone, each of the plurality of sinusoidal springs (208, 308) comprising: a first end and a second end; characterized by a plurality of energy dissipation devices (215, 221, 300) arranged between the inner and outer shells (204; 202); and wherein the second end of each of the plurality of sinusoidal springs (208, 308) is connected to one of said plurality of energy dissipation devices (215, 221, 300). a first end and a second end; characterized by a plurality of energy dissipation devices (215, 221, 300) arranged between the inner and outer shells (204; 202); and wherein the second end of each of the plurality of sinusoidal springs (208, 308) is connected to one of said plurality of energy dissipation devices (215, 221, 300).
A door assembly including a door leaf, which is accommodated with door hinges in a door frame to be rotatable around an axis of rotation of a door, wherein • a rotating column configured around the axis of rotation of the door is provided, and • a door drive, which is in a driving operative connection with the door leaf, is accommodated in the rotating column, characterized in that • the rotating column - is configured of at least one first half-liner and one second half-liner, wherein the half-liners (12, 13) o are connected to each other by means of connecting elements for forming a tube-like structure, and o rotate along together with the rotational movement of the door leaf, or - is formed by means of tubular elements (22, 23, 24, 25), o which, laying vertically one on top of the other, are disposed around the axis of rotation of the door, o between which a fixed bearing and/or a loose bearing is or are disposed, and o in which at least the door drive is accommodated. • a rotating column configured around the axis of rotation of the door is provided, and • a door drive, which is in a driving operative connection with the door leaf, is accommodated in the rotating column, • the rotating column - is configured of at least one first half-liner and one second half-liner, wherein the half-liners (12, 13) o are connected to each other by means of connecting elements for forming a tube-like structure, and o rotate along together with the rotational movement of the door leaf, or - is formed by means of tubular elements (22, 23, 24, 25), o which, laying vertically one on top of the other, are disposed around the axis of rotation of the door, o between which a fixed bearing and/or a loose bearing is or are disposed, and o in which at least the door drive is accommodated. - is configured of at least one first half-liner and one second half-liner, wherein the half-liners (12, 13) o are connected to each other by means of connecting elements for forming a tube-like structure, and o rotate along together with the rotational movement of the door leaf, or o are connected to each other by means of connecting elements for forming a tube-like structure, and o rotate along together with the rotational movement of the door leaf, or - is formed by means of tubular elements (22, 23, 24, 25), o which, laying vertically one on top of the other, are disposed around the axis of rotation of the door, o between which a fixed bearing and/or a loose bearing is or are disposed, and o in which at least the door drive is accommodated. o which, laying vertically one on top of the other, are disposed around the axis of rotation of the door, o between which a fixed bearing and/or a loose bearing is or are disposed, and o in which at least the door drive is accommodated.
A display device of a vehicle, the display device comprising: a communicator; a display; a memory configured to store a plurality of templates; and a processor configured to: control the display to display a plurality of icons, in response to a user input for selecting an icon from among the plurality of icons, identify a template among the plurality of templates corresponding to the selected icon and identify status information of the vehicle corresponding to the selected icon, generate a message combining the template and the status information of the vehicle, and control the communicator to transmit the message to an external apparatus. a communicator; a display; a memory configured to store a plurality of templates; and a processor configured to: control the display to display a plurality of icons, in response to a user input for selecting an icon from among the plurality of icons, identify a template among the plurality of templates corresponding to the selected icon and identify status information of the vehicle corresponding to the selected icon, generate a message combining the template and the status information of the vehicle, and control the communicator to transmit the message to an external apparatus. control the display to display a plurality of icons, in response to a user input for selecting an icon from among the plurality of icons, identify a template among the plurality of templates corresponding to the selected icon and identify status information of the vehicle corresponding to the selected icon, generate a message combining the template and the status information of the vehicle, and control the communicator to transmit the message to an external apparatus.
A synthetic resin spout stopper applied to a paper container having at least a synthetic resin film laminated to an inner surface or outer surface thereof, comprising: a protruding tubular wall allowed to protrude through or in succession to a spout hole formed in the container; and an annular flange wall extending out radially outwardly from an outer periphery of a lower end part of the protruding tubular wall, wherein an upper surface or lower surface of the annular flange wall is welded to an inner surface or outer surface of the container, and an annular score is formed in an inner peripheral edge part of the annular flange wall, and wherein annular additional scores (40, 42) are formed in the inner peripheral edge part of the annular flange wall in such a manner as to be disposed adjacent to the annular score both radially outwardly of and radially in-wardly of the annular score, characterized in that said annular score is to be broken, and that a residual wall thickness at sites of the annular additional scores (40, 42) is larger than a residual wall thickness at a site of the annular score, and that the annular score and the annular additional scores (40, 42) are formed by disposing annular grooves in a lower surface of the annular flange wall. a protruding tubular wall allowed to protrude through or in succession to a spout hole formed in the container; and an annular flange wall extending out radially outwardly from an outer periphery of a lower end part of the protruding tubular wall, wherein an upper surface or lower surface of the annular flange wall is welded to an inner surface or outer surface of the container, and an annular score is formed in an inner peripheral edge part of the annular flange wall, and wherein annular additional scores (40, 42) are formed in the inner peripheral edge part of the annular flange wall in such a manner as to be disposed adjacent to the annular score both radially outwardly of and radially in-wardly of the annular score, characterized in that said annular score is to be broken, and that a residual wall thickness at sites of the annular additional scores (40, 42) is larger than a residual wall thickness at a site of the annular score, and that the annular score and the annular additional scores (40, 42) are formed by disposing annular grooves in a lower surface of the annular flange wall.
Food thermometer with at least one direct current energy generating unit, characterised in that the at least one direct current energy generating unit comprises a plurality of separate external electrodes (3, 4; 3a, 3b, 4) made of a different metal.
Use of an excipient which is dimethylglycine or a physiologically acceptable salt or ester thereof, for increasing the immunogenicity of an influenza antigen, which use comprises heat-treating an aqueous composition comprising the influenza antigen and the excipient at 40°C to 50°C for 2 hours to 2 weeks.
A cargo loading system, comprising: a processor; a non-transitory memory communicating with the processor, the non-transitory memory having instructions stored thereon, the processor being configured to perform operations comprising: estimating a centroid of a cargo; partitioning a cargo hold into a forward partition forward of the centroid and an aft partition aft of the centroid; reading a first input from a first joystick and a second input from a second joystick; mapping the first input to a first power drive unit in the forward partition; and mapping the second input to a second PDU in the aft partition. a processor; a non-transitory memory communicating with the processor, the non-transitory memory having instructions stored thereon, the processor being configured to perform operations comprising: estimating a centroid of a cargo; partitioning a cargo hold into a forward partition forward of the centroid and an aft partition aft of the centroid; reading a first input from a first joystick and a second input from a second joystick; mapping the first input to a first power drive unit in the forward partition; and mapping the second input to a second PDU in the aft partition. estimating a centroid of a cargo; partitioning a cargo hold into a forward partition forward of the centroid and an aft partition aft of the centroid; reading a first input from a first joystick and a second input from a second joystick; mapping the first input to a first power drive unit in the forward partition; and mapping the second input to a second PDU in the aft partition.
An immunochromatographic device comprising: a glass plate including: a sample application portion for applying a sample containing an antigen to the device; a sample recovery portion for recovering the sample applied to the sample application portion from the device; a developing portion for developing the sample from the sample application portion to the sample recovery portion; and an antibody-carrying portion for carrying an antibody capable of binding to the antigen in the developing portion; wherein the developing portion comprises a transparent plate, the glass plate and the transparent plate are placed in parallel with each other with a gap, and the sample can migrate in the gap of the developing portion by capillary action, wherein the device is characterized in that: the developing portion or the antibody-carrying portion in the glass plate comprises a roughened surface, and the roughened surface has a mean roughness of 0.01-20.0 μm, a maximum height of roughness of 0.1-150.0 μm, and a concave-to-convex distance of 10-2000 μm. a glass plate including: a sample application portion for applying a sample containing an antigen to the device; a sample recovery portion for recovering the sample applied to the sample application portion from the device; a developing portion for developing the sample from the sample application portion to the sample recovery portion; and an antibody-carrying portion for carrying an antibody capable of binding to the antigen in the developing portion; wherein a sample application portion for applying a sample containing an antigen to the device; a sample recovery portion for recovering the sample applied to the sample application portion from the device; a developing portion for developing the sample from the sample application portion to the sample recovery portion; and an antibody-carrying portion for carrying an antibody capable of binding to the antigen in the developing portion; wherein the developing portion comprises a transparent plate, the glass plate and the transparent plate are placed in parallel with each other with a gap, and the sample can migrate in the gap of the developing portion by capillary action, wherein the device is characterized in that: the developing portion or the antibody-carrying portion in the glass plate comprises a roughened surface, and the roughened surface has a mean roughness of 0.01-20.0 μm, a maximum height of roughness of 0.1-150.0 μm, and a concave-to-convex distance of 10-2000 μm. the developing portion or the antibody-carrying portion in the glass plate comprises a roughened surface, and the roughened surface has a mean roughness of 0.01-20.0 μm, a maximum height of roughness of 0.1-150.0 μm, and a concave-to-convex distance of 10-2000 μm.
A first communication port, being configured to generate frames and said first communication port comprising a transmit frame counter for counting the transmitted frames, the frames having at least - a preamble, - a data field, - a frame count field, the first communication port characterized by being configured to divide the bit value of the transmit frame counter is divided into a predetermined number of n segments, and to place each segment in the frame count field of n consecutive frames. - a preamble, - a data field, - a frame count field,
Method for manufacturing a tubular part, comprising an insert made from composite material with a metal matrix, in which ceramic fibres lie, the method comprising the following steps: - the formation of a cluster of previously coated threads, each thread comprising a ceramic fibre clad with a metal sheath, - the fixing of the threads of the cluster of threads close to one end of a support piece, and - the winding around the support piece, on a helical path, of all the threads in the cluster, characterised by the fact that the threads are not secured to one another and are wound around the support piece by a die, placed around the support piece and translated along its axis, the support piece being rotated about its axis. - the formation of a cluster of previously coated threads, each thread comprising a ceramic fibre clad with a metal sheath, - the fixing of the threads of the cluster of threads close to one end of a support piece, and - the winding around the support piece, on a helical path, of all the threads in the cluster,