mhurhangee/ep-ind-claims huggingface dataset:
Crystallizer for continuous casting comprising at least one wall provided, in its surface that is external during use, with a plurality of grooves each of which made open toward the outside and having a mainly longitudinal development, a longitudinal metal bar being inserted into each of said grooves and developing for at least part of the length of the respective groove, which closes said groove toward the outside and which defines therewith a channel for the passage of a cooling fluid, characterized in that said longitudinal metal bars are made integral with said wall of the crystallizer by welding them onto at least part of the internal edges of said grooves.
Ring for engaging tissue comprising: a round resilient body (12, 36, 54, 72, 102) defining an axial through-opening (14, 38, 56, 74, 104) configured to receive the tissue, the through-opening defining an axis and a plane defined by the ring body being perpendicular to the axis; two elongated axially rigid gripping members extending into the through-opening along an elongated dimension and defining a gripping member axis, each of the gripping members having a first end embedded in the ring and a second end distanced from the first end and not embedded in the ring, characterised in that the two elongated gripping members extend diametrically across the through-opening, parallel to each other and side by side, and are offset from each other in the radial dimension defined by the ring body. a round resilient body (12, 36, 54, 72, 102) defining an axial through-opening (14, 38, 56, 74, 104) configured to receive the tissue, the through-opening defining an axis and a plane defined by the ring body being perpendicular to the axis; two elongated axially rigid gripping members extending into the through-opening along an elongated dimension and defining a gripping member axis, each of the gripping members having a first end embedded in the ring and a second end distanced from the first end and not embedded in the ring, characterised in that the two elongated gripping members extend diametrically across the through-opening, parallel to each other and side by side, and are offset from each other in the radial dimension defined by the ring body.
A uniflow-scavenged, two-stroke cycle, opposed-piston engine including at least one cylinder with piston-controlled exhaust and intake ports (54, 56), an exhaust channel coupled to at least one exhaust port of the engine, and a charge air channel coupled to at least one intake port of the engine, and a conduit that fluidly connects the exhaust channel and the charge air channel, in which the engine has no supercharger and comprises: a high pressure exhaust gas recirculation loop having a loop input coupled to the exhaust channel and a loop output coupled to the charge air channel, such that the recirculated gas flows through the conduit; and, a turbocharger with a charge air output coupled to the charge air channel, a turbine input coupled to the exhaust channel, and a turbine output coupled to an exhaust output; in which the loop input of the high pressure EGR loop is coupled to the exhaust channel upstream of the turbine input of the turbocharger and the loop output of the high pressure EGR loop is coupled downstream of turbocharger compressor output; characterized by: two crankshafts (71, 72), in which each exhaust piston couples to a first crankshaft and each intake piston couples to a second crankshaft; a pump in the EGR loop to pump exhaust gas from the exhaust channel through the EGR loop into the charge air channel; a variable valve between the EGR loop input and the pump, in which an outlet of the variable valve is connected to an input of the pump; and an EGR cooler incorporated into the conduit between the pump and EGR loop output. a high pressure exhaust gas recirculation loop having a loop input coupled to the exhaust channel and a loop output coupled to the charge air channel, such that the recirculated gas flows through the conduit; and, a turbocharger with a charge air output coupled to the charge air channel, a turbine input coupled to the exhaust channel, and a turbine output coupled to an exhaust output; in which the loop input of the high pressure EGR loop is coupled to the exhaust channel upstream of the turbine input of the turbocharger and the loop output of the high pressure EGR loop is coupled downstream of turbocharger compressor output; characterized by: two crankshafts (71, 72), in which each exhaust piston couples to a first crankshaft and each intake piston couples to a second crankshaft; a pump in the EGR loop to pump exhaust gas from the exhaust channel through the EGR loop into the charge air channel; a variable valve between the EGR loop input and the pump, in which an outlet of the variable valve is connected to an input of the pump; and an EGR cooler incorporated into the conduit between the pump and EGR loop output. two crankshafts (71, 72), in which each exhaust piston couples to a first crankshaft and each intake piston couples to a second crankshaft; a pump in the EGR loop to pump exhaust gas from the exhaust channel through the EGR loop into the charge air channel; a variable valve between the EGR loop input and the pump, in which an outlet of the variable valve is connected to an input of the pump; and an EGR cooler incorporated into the conduit between the pump and EGR loop output.
A display method for displaying an image included in a video signal on a per frame basis, the display method comprising: a visible light communication image generating step (SL11, S104, S105, S106) of coding a visible light communication signal to generate an image having a striped pattern for visible light communication as a first visible light communication image; a frame dividing step of dividing a frame in which an image included in the video signal is displayed into a plurality of subframes; a first display step of displaying the image included in the video signal, in a first subframe among the plurality of subframes; and a second display step of displaying (S109a) a low-luminance image in a second subframe among the plurality of subframes, and displaying the first visible light communication image in a third subframe among the plurality of subframes, the low-luminance image being an identification image and having uniform luminance lower than average luminance of the image which is included in the video signal and is to be displayed, wherein in the second display step, after the image included in the video signal is displayed in the first subframe, each of the identification image and the first visible light communication image is displayed (S109a, S110) in said frame for a period shorter than said frame, characterized in that a time for displaying the first visible light communication image in one frame is within 0.2 millisecond. a visible light communication image generating step (SL11, S104, S105, S106) of coding a visible light communication signal to generate an image having a striped pattern for visible light communication as a first visible light communication image; a frame dividing step of dividing a frame in which an image included in the video signal is displayed into a plurality of subframes; a first display step of displaying the image included in the video signal, in a first subframe among the plurality of subframes; and a second display step of displaying (S109a) a low-luminance image in a second subframe among the plurality of subframes, and displaying the first visible light communication image in a third subframe among the plurality of subframes, the low-luminance image being an identification image and having uniform luminance lower than average luminance of the image which is included in the video signal and is to be displayed, wherein in the second display step, after the image included in the video signal is displayed in the first subframe, each of the identification image and the first visible light communication image is displayed (S109a, S110) in said frame for a period shorter than said frame,
A method for transmitting, by a user equipment, UE, an uplink signal to a base station, BS, in a wireless communication system supporting an unlicensed band, the method comprising: transmitting, to the BS, a first data in a reference resource configured for adjusting a contention window size, CWS, wherein a HARQ ID is associated to the reference resource, and wherein the transmission of the first data is a transport block, TB, based transmission or code block group, CBG, based transmission; receiving, from the BS, an uplink grant for at least one TB or for at least one CBG, wherein the uplink grant comprises information for indicating an initial transmission or a retransmission of the first data, for each of the at least one TB or for each of the at least one CBG; adjusting a contention window size, CWS, differently based on whether the transmission of the first data is the TB based transmission or the CBG based transmission; and transmitting, to the BS, a second data or a retransmission of the first data based on a channel access procedure, CAP, to which the adjusted CWS is applied, wherein, for a case of the CBG based transmission, based on the information indicating that at least a ratio of CBG having the HARQ ID associated to the reference resource are for an initial transmission, the CWS is initialized; otherwise, the CWS is increased, and wherein, for a case of the TB based transmission, based on the information indicating that at least one TB having the HARQ ID associated to the reference resource is for an initial transmission, the CWS is initialized; otherwise, the CWS is increased. transmitting, to the BS, a first data in a reference resource configured for adjusting a contention window size, CWS, wherein a HARQ ID is associated to the reference resource, and wherein the transmission of the first data is a transport block, TB, based transmission or code block group, CBG, based transmission; receiving, from the BS, an uplink grant for at least one TB or for at least one CBG, wherein the uplink grant comprises information for indicating an initial transmission or a retransmission of the first data, for each of the at least one TB or for each of the at least one CBG; adjusting a contention window size, CWS, differently based on whether the transmission of the first data is the TB based transmission or the CBG based transmission; and transmitting, to the BS, a second data or a retransmission of the first data based on a channel access procedure, CAP, to which the adjusted CWS is applied, wherein, for a case of the CBG based transmission, based on the information indicating that at least a ratio of CBG having the HARQ ID associated to the reference resource are for an initial transmission, the CWS is initialized; otherwise, the CWS is increased, and wherein, for a case of the TB based transmission, based on the information indicating that at least one TB having the HARQ ID associated to the reference resource is for an initial transmission, the CWS is initialized; otherwise, the CWS is increased.
Drug delivery device, comprising a control unit, a drive unit, a pressurizing medium container arranged to contain a pressurizing liquid, a drug container arranged to contain a drug and a discharge nozzle, wherein the drive unit when controlled and energized by the control unit is arranged to generate a pressure gradient in the pressurizing liquid thereby propagating the pressure to the drug container and at least partially displacing the drug from the drug container through the discharge nozzle, wherein the drive unit is arranged as an electro-osmotic actor, wherein the electro-osmotic actor comprises a membrane with traversing pores and is arranged to apply an electrical field essentially in parallel to a surface of the pressurizing liquid within the pores, wherein the electro-osmotic actor is arranged as an electro-osmotic membrane within the pressurizing medium container, characterized in that a flexible membrane is arranged within the drug container for separating the drug from the pressurizing liquid, wherein the control unit, the electro-osmotic actor and the pressurizing medium container are arranged within a reusable module (1.1), and wherein the drug container and the nozzle are disposable.
A system for presenting signals sensed by one or more implantable medical devices (110, 1710, 1810), the system comprising: a telemetry circuit (122, 1922) configured to receive data representative of time stamped cardiac and neural activities transmitted from the one or more implantable medical devices, the received data including one or more intracardiac electrograms indicative of cardiac depolarizations, one or more sensed nerve traffic signals indicative of autonomic nerve traffic, and neural event markers indicative of neural stimulation periods each including a time period during which a burst of neural stimulation pulses is delivered; an external control circuit coupled to the telemetry circuit, the external control circuit including a presentation controller adapted to produce and temporally align one or more cardiac signals (602, 610, 701, 702, 710, 1002) indicative of cardiac depolarizations and neural signals (604, 606, 608, 609, 612, 1004) indicative of the autonomic nerve traffic and the neural stimulation periods for visual presentation based on the received data including time stamps for the cardiac and neural activities; and a presentation device (126,426, 1926) coupled to the presentation controller, the presentation device adapted to simultaneously present the temporally aligned one or more cardiac signals and the neural signals to allow for observation of relationships between the cardiac and neural activities. a telemetry circuit (122, 1922) configured to receive data representative of time stamped cardiac and neural activities transmitted from the one or more implantable medical devices, the received data including one or more intracardiac electrograms indicative of cardiac depolarizations, one or more sensed nerve traffic signals indicative of autonomic nerve traffic, and neural event markers indicative of neural stimulation periods each including a time period during which a burst of neural stimulation pulses is delivered; an external control circuit coupled to the telemetry circuit, the external control circuit including a presentation controller adapted to produce and temporally align one or more cardiac signals (602, 610, 701, 702, 710, 1002) indicative of cardiac depolarizations and neural signals (604, 606, 608, 609, 612, 1004) indicative of the autonomic nerve traffic and the neural stimulation periods for visual presentation based on the received data including time stamps for the cardiac and neural activities; and a presentation device (126,426, 1926) coupled to the presentation controller, the presentation device adapted to simultaneously present the temporally aligned one or more cardiac signals and the neural signals to allow for observation of relationships between the cardiac and neural activities.
Separated blood cell donor cellular microvesicles (MVs) for use in preventing or treating a disease by modulating disease-related miRNA content in a human or animal, wherein said disease is one or more of atherosclerosis and chronic inflammation caused by blood vessel damage, wherein the disease-related miRNA is miR-150 and the separated donor cellular microvesicles contain miR-150 and miR-150 antisense RNA.
A liquid fuel trap device for a vehicle fuel system, the device comprising a housing forming a confined space with at least one port connectable to a fuel vapor passage, and a valve (4,6) capable of discharging liquid fuel from said space into the tank, wherein the housing comprises retention means to refrain the fuel in the housing from reaching the outlet port connectable to the fuel vapor recovery system, wherein the retention means comprise at least one barrier in the form of a panel or rib extending substantially but not completely over the entire width of the housing and showing an angle at the end, said barrier forming a fuel hold volume in angle scenarios, characterized in that the volume is increased by providing several barriers in the form of a panel or rib extending substantially but not completely over the entire width of the housing, said barriers being arranged between the valve device and the outlet port, and in that the panels or ribs of said barriers extend substantially but not completely over the entire height of the housing.
An electronic vapour provision system including: a vaporiser for vaporising liquid for inhalation by a user of the electronic vapour provision system; and a power supply comprising a cell or battery for supplying power to the vaporiser, characterised in that the electronic vapour provision system further comprises a power regulation system for compensating for variation in the voltage level of the power supplied to the vaporiser by the power supply using pulse-width modulation, thereby providing a more consistent output level of vaporised liquid for inhalation by the user, wherein the electronic vapour provision system is configured to measure the current voltage output level from the power supply and is configured to set the duty cycle of the pulse-width modulation based on the measured voltage output level from the power supply. a vaporiser for vaporising liquid for inhalation by a user of the electronic vapour provision system; and a power supply comprising a cell or battery for supplying power to the vaporiser, characterised in that the electronic vapour provision system further comprises a power regulation system for compensating for variation in the voltage level of the power supplied to the vaporiser by the power supply using pulse-width modulation, thereby providing a more consistent output level of vaporised liquid for inhalation by the user, wherein the electronic vapour provision system is configured to measure the current voltage output level from the power supply and is configured to set the duty cycle of the pulse-width modulation based on the measured voltage output level from the power supply.
Method for recognizing a free transmission channel of a multichannel transmission system designed with multiple transmission channels, particularly for the transmission of sound and/or picture signals, wherein the useful signals sent by an arbitrary number of signal sources are received by a central unit and distributed on applicable transmission channels to any amount of reception modules, wherein one transmission channel from a prescribed number of transmission channels can be selected individually on each reception module, characterized - in that the currently free transmission channels of the transmission system are provided with an identifier by the central unit, - in that a check is performed for each reception module to determine which transmission channels are provided with an identifier, and - in that when a transmission channel provided with an identifier is called up, this transmission channel is not called up or is bypassed. - in that the currently free transmission channels of the transmission system are provided with an identifier by the central unit, - in that a check is performed for each reception module to determine which transmission channels are provided with an identifier, and - in that when a transmission channel provided with an identifier is called up, this transmission channel is not called up or is bypassed.
Method for identifying a parvovirus mutated structural protein capable of specifically binding to a binder for an antigen, wherein the mutated structural protein comprises at least one B-cell epitope heterologous to the parvovirus, the method comprising the steps of: a) providing a library of parvovirus virions, each parvovirus virion expressing at least one mutated parvovirus structural protein, b) providing a binder for an antigen, wherein the binder is selected from a(n) antibody, antibody derivative, antibody fragment, antibody multimer, anticalin, lipocalin, receptor, ankyrine, microbody and aptamer and wherein the antigen is not a parvovirus antigen, c) selecting at least one parvovirus virion specifically binding to the binder, and d) identifying i) the parvovirus mutated structural protein or a mutated part thereof, or ii) the gene or a mutated part thereof encoding the parvovirus mutated structural protein of the parvovirus virion selected in step c). a) providing a library of parvovirus virions, each parvovirus virion expressing at least one mutated parvovirus structural protein, b) providing a binder for an antigen, wherein the binder is selected from a(n) antibody, antibody derivative, antibody fragment, antibody multimer, anticalin, lipocalin, receptor, ankyrine, microbody and aptamer and wherein the antigen is not a parvovirus antigen, c) selecting at least one parvovirus virion specifically binding to the binder, and d) identifying i) the parvovirus mutated structural protein or a mutated part thereof, or ii) the gene or a mutated part thereof encoding the parvovirus mutated structural protein i) the parvovirus mutated structural protein or a mutated part thereof, or ii) the gene or a mutated part thereof encoding the parvovirus mutated structural protein
An aircraft wing, comprising: a low pressure side and a high pressure side opposite the low pressure side, wherein the low pressure side and high pressure side are configured, when air flows over the wing, to generate a force on the high pressure side; and a drag reducing apparatus coupled to the low pressure side of the wing using an adhesive, the drag reducing apparatus comprising: a first side coupled to the low pressure side of the wing; and a second side opposite the first side, wherein the second side comprising a plurality of vortex generators operable to weaken a wingtip vortex generated by the wing by generating one or more vane vortices near an end of the low pressure side of the wing, respectively, characterized in that the vortex generators are arranged in a plurality of arrays (250, 310), wherein the plurality of arrays (250, 310) comprises arrays (250, 310) arranged next to each other with a spacing (311, 312) in width and length direction, wherein the spacing (311, 312) of the arrays (250, 310) of the plurality of arrays (250, 310) is between 2,54 mm and 25,4 mm (0.1 and 1 inch), and further characterized in that each of the plurality of vortex generators is between 6,35 mm and 12,7 mm (0.25 and 0.5 inches) in height. a low pressure side and a high pressure side opposite the low pressure side, wherein the low pressure side and high pressure side are configured, when air flows over the wing, to generate a force on the high pressure side; and a drag reducing apparatus coupled to the low pressure side of the wing using an adhesive, the drag reducing apparatus comprising: a first side coupled to the low pressure side of the wing; and a second side opposite the first side, a first side coupled to the low pressure side of the wing; and a second side opposite the first side, wherein the second side comprising a plurality of vortex generators operable to weaken a wingtip vortex generated by the wing by generating one or more vane vortices near an end of the low pressure side of the wing, respectively, characterized in that the vortex generators are arranged in a plurality of arrays (250, 310), wherein the plurality of arrays (250, 310) comprises arrays (250, 310) arranged next to each other with a spacing (311, 312) in width and length direction, wherein the spacing (311, 312) of the arrays (250, 310) of the plurality of arrays (250, 310) is between 2,54 mm and 25,4 mm (0.1 and 1 inch), and further characterized in that each of the plurality of vortex generators is between 6,35 mm and 12,7 mm (0.25 and 0.5 inches) in height.