mhurhangee/ep-ind-claims huggingface dataset:
A display device comprising: a display panel; an inner plate disposed on a rear surface of the display panel; a module cover disposed on a rear surface of the inner plate; an inner space formed between the inner plate and the module cover; a back cover configured to form a loading portion by covering a first area provided in a rear surface of the module cover; and an electric control unit placed at the loading portion and being coupled to the first area, wherein the module cover comprises, an upper lateral wall portion projected from an upper end of the first area toward a rear side of the display device and configured to define an upper surface of the loading portion; an upper inclined portion inclined from the upper lateral wall portion and extended toward a front side of the display device; a first vent hole formed in the upper lateral wall portion and configured to communicate the loading portion and the inner space; a second vent hole formed in the upper inclined portion and configured to communicate the inner space with the outside; a reinforcing rib projected from a front surface of the module cover; and a third vent hole formed in an upper area of the module cover and placed further upwards than the first vent hole and the second vent hole, and wherein the reinforcing rib comprises a support area configured to contact the inner plate and a communication area spaced apart from the inner plate, and wherein air drawn from the loading portion via the first vent hole passes the communication area and is exhausted via the third vent hole. a display panel; an inner plate disposed on a rear surface of the display panel; a module cover disposed on a rear surface of the inner plate; an inner space formed between the inner plate and the module cover; a back cover configured to form a loading portion by covering a first area provided in a rear surface of the module cover; and an electric control unit placed at the loading portion and being coupled to the first area, wherein the module cover comprises, an upper lateral wall portion projected from an upper end of the first area toward a rear side of the display device and configured to define an upper surface of the loading portion; an upper inclined portion inclined from the upper lateral wall portion and extended toward a front side of the display device; a first vent hole formed in the upper lateral wall portion and configured to communicate the loading portion and the inner space; a second vent hole formed in the upper inclined portion and configured to communicate the inner space with the outside; a reinforcing rib projected from a front surface of the module cover; and a third vent hole formed in an upper area of the module cover and placed further upwards than the first vent hole and the second vent hole, and wherein the reinforcing rib comprises a support area configured to contact the inner plate and a communication area spaced apart from the inner plate, and wherein air drawn from the loading portion via the first vent hole passes the communication area and is exhausted via the third vent hole.
A bispecific antibody comprising a binding domain that binds to Pseudomonas Psl and a binding domain that binds to Pseudomonas PcrV, wherein the bispecific antibody comprises an anti-PcrV heavy chain-anti-Psl scFv fusion protein, wherein the Psl scFv is within the hinge region of the anti-PcrV heavy chain, said fusion protein having the amino acid sequence set out in SEQ ID NO: 264 and an anti-PcrV light chain having the amino acid sequence set out in SEQ ID NO: 263.
A developing roller comprising an elastic layer formed on an outer circumferential face of a shaft and a coating layer formed on an outer circumferential face of the elastic layer, wherein the coating layer comprises first coating layers formed at respective edges across the elastic layer, and a second coating layer formed between the first coating layers, and wherein the first coating layers contain a resin obtained through a reaction of a polyol with a silane-coupling agent, particles of a fluororesin, and an electric conductivity agent, wherein the first coating layers do not essentially contain ionic liquid; and the second coating layer contains a urethane resin, at least one ionic liquid selected from the group consisting of pyridinium ionic liquids and amine ionic liquids, an electric conductivity agent, and filler particles.
Method for manufacturing a seamless hollow ingot 4a, b from a solid round ingot 1 made of steel with a hollow ingot diameter which by reducing or widening rolling is rolled smaller or larger than the initial solid round ingot 1, in which method the hollow ingot 4a, b is produced by means of a three-roll cross-rolling mill via a piercing mandrel 3a, b which is held between the rolls 2 and has a piercing part 10 and at least one smoothing part 12, wherein, for producing a hollow ingot diameter reduced or increased compared with the initial ingot diameter, in particular the spacing of the rolls 2 in the narrowest cross-section 6, the so-called high point, in relation to the diameter of the initial round ingot 1, and the spacing 7 of the tip of the piercing mandrel 3a, b with respect to the high point 6, the so-called mandrel forward position, and also the effective entry angle 18, are set, characterised in that by using an identical roll set for the reducing and widening rolling the settings for the rolls and the piercing mandrel are determined and carried out by the following equations: effective entry angle: 2° to 7° diameter of high point: 75 to 90% of the ingot diameter mandrel forward position: (0.05 to 0.4) x length of roll entry where the rolling limit values result as follows: reducing rolling to -30% of the ingot diameter: max. effective entry angle: 7° diameter of high point: 75 to 85% of the ingot diameter mandrel forward position: (0.2 to 0.4) x length of roll entry widening rolling to +16% of the ingot diameter: min. effective entry angle: 2° diameter of high point: 85 to 90% of the ingot diameter mandrel forward position: (0.05 to 0.15) x length of roll entry wherein for the widening rolling, there is used a piercing mandrel 3a, b which between piercing part 10 and smoothing part 12 additionally has a widening part 11.
Method for improving the functionality of a video call by the use of a telecommunication network, wherein the video call represents a video data stream between an initial telecommunication terminal and a second telecommunication terminal, wherein an initial reproduction device is at least assigned to the initial telecommunication terminal and a second reproduction device is at least assigned to the second telecommunication terminal, wherein the telecommunication network has at least a control unit for controlling the video call, wherein the control unit initiates the video call between the initial telecommunication terminal and the second telecommunication terminal, wherein the control unit is assigned at least one recording memory as a minimum, wherein the method comprises at least the following steps: - during the video call the initial telecommunication terminal sends initial signalling information representing a recording request to the control unit, - the recording request is reproduced by the second telecommunication terminal with the second reproduction device, - second signalling information representing a request reply is sent by the second telecommunication terminal to the control unit; wherein - in the case of confirmatory second signalling information from the second telecommunication terminal the video data stream is stored by the recording memory, starting from a point in time preceding the point in time of the initial signalling information by a query time interval of at least 10 seconds, and is provided as memory video data which is retrievable; - in the case of negative second signalling information from the second telecommunication terminal, the request reply is reproduced by the initial telecommunication terminal with the initial reproduction device. - during the video call the initial telecommunication terminal sends initial signalling information representing a recording request to the control unit, - the recording request is reproduced by the second telecommunication terminal with the second reproduction device, - second signalling information representing a request reply is sent by the second telecommunication terminal to the control unit; wherein - in the case of confirmatory second signalling information from the second telecommunication terminal the video data stream is stored by the recording memory, starting from a point in time preceding the point in time of the initial signalling information by a query time interval of at least 10 seconds, and is provided as memory video data which is retrievable; - in the case of negative second signalling information from the second telecommunication terminal, the request reply is reproduced by the initial telecommunication terminal with the initial reproduction device.
A method comprising: injecting a plurality of equal amplitude tones across a frequency band; determining one or more frequency responses ( I tone ( f), Q tone ( f)) based on the injected tones; determining frequency dependent imbalance parameters (g(f), φ ( f)) associated with a quadrature down-converter based on the determined one or more frequency responses ( I tone ( f), Q tone ( f)); determining one or more parameters (h QC,i ( n), h QC,q ( n)) for wideband quadrature imbalance compensation by inverting a frequency response ( H Q ( k)) of the quadrature imbalance determined from the frequency dependent imbalance parameters ( g ( f), φ ( f)), wherein the imbalance parameters ( g ( f), φ ( f)) are linearly interpolated to equally spaced imbalance parameters ( g L ( k), φ L ( k)); down-converting an input radio-frequency, RF, signal by the quadrature down-converter, DC; providing DC off-set compensation of the I and Q components of an intermediate signal, wherein the intermediate signal represents in-phase, I, and quadrature, Q, components of the quadrature down converter; and compensating the DC off-set compensated intermediate signal based on the determined one or more parameters ( h QC,i ( n), h QC,q ( n)) for wideband quadrature compensation. injecting a plurality of equal amplitude tones across a frequency band; determining one or more frequency responses ( I tone ( f), Q tone ( f)) based on the injected tones; determining frequency dependent imbalance parameters (g(f), φ ( f)) associated with a quadrature down-converter based on the determined one or more frequency responses ( I tone ( f), Q tone ( f)); determining one or more parameters (h QC,i ( n), h QC,q ( n)) for wideband quadrature imbalance compensation by inverting a frequency response ( H Q ( k)) of the quadrature imbalance determined from the frequency dependent imbalance parameters ( g ( f), φ ( f)), wherein the imbalance parameters ( g ( f), φ ( f)) are linearly interpolated to equally spaced imbalance parameters ( g L ( k), φ L ( k)); down-converting an input radio-frequency, RF, signal by the quadrature down-converter, DC; providing DC off-set compensation of the I and Q components of an intermediate signal, wherein the intermediate signal represents in-phase, I, and quadrature, Q, components of the quadrature down converter; and compensating the DC off-set compensated intermediate signal based on the determined one or more parameters ( h QC,i ( n), h QC,q ( n)) for wideband quadrature compensation.
A vacuum cleaner comprising: a body to generate suction force; a suction head to contact a surface to be cleaned so as to suction air and dirt; a handle pipe manipulated by a user; a flexible hose to connect the handle pipe to the body; an extension pipe to connect the suction head to the handle pipe; and a multipurpose suction coupled to the handle pipe to replace the suction head to perform cleaning, wherein the multipurpose suction accessory comprises: a cylindrical main body coupled to the handle pipe, the main body comprising an introduction port formed on a lateral surface of the main body and a discharge port formed at one of both longitudinal ends of the main body to communicate with the handle pipe; a cylindrical rotating body rotatably coupled to an outside of the main body and comprising a plurality of suction parts formed on a lateral surface of the rotating body and spaced a predetermined distance from each other in a circumferential direction, the suction ports being sequentially positioned to correspond to the introduction port of the main body by rotating the rotating body with respect to the main body; characterized in that the multipurpose suction accesssory further comprises a locker to restrict rotation of the rotating body with respect to the main body. a body to generate suction force; a suction head to contact a surface to be cleaned so as to suction air and dirt; a handle pipe manipulated by a user; a flexible hose to connect the handle pipe to the body; an extension pipe to connect the suction head to the handle pipe; and a multipurpose suction coupled to the handle pipe to replace the suction head to perform cleaning, wherein the multipurpose suction accessory comprises: a cylindrical main body coupled to the handle pipe, the main body comprising an introduction port formed on a lateral surface of the main body and a discharge port formed at one of both longitudinal ends of the main body to communicate with the handle pipe; a cylindrical rotating body rotatably coupled to an outside of the main body and comprising a plurality of suction parts formed on a lateral surface of the rotating body and spaced a predetermined distance from each other in a circumferential direction, the suction ports being sequentially positioned to correspond to the introduction port of the main body by rotating the rotating body with respect to the main body; a cylindrical main body coupled to the handle pipe, the main body comprising an introduction port formed on a lateral surface of the main body and a discharge port formed at one of both longitudinal ends of the main body to communicate with the handle pipe; a cylindrical rotating body rotatably coupled to an outside of the main body and comprising a plurality of suction parts formed on a lateral surface of the rotating body and spaced a predetermined distance from each other in a circumferential direction, the suction ports being sequentially positioned to correspond to the introduction port of the main body by rotating the rotating body with respect to the main body; a locker to restrict rotation of the rotating body with respect to the main body.
Expandable infusion container for receiving a dried infusion substance for preparation of an infusion beverage, comprising a base part, a lid part and a wall part connecting the base part and the lid part, wherein the wall part has a variable length and is fastened with a first end to the base part and is connected with its second end to the lid part, characterized in that the lid part and the base part are connected to one another via a destructible guarantee seal.
Ultrahigh pressure mercury lamp comprising a pair of electrodes (2, 3) in an arc tube which is filled with at least 0.15 mg/mm 3 of mercury and halogen, characterized in that the electrodes have a carbon content of at most 10 ppm by weight and an oxygen content of at most 10 ppm by weight.
A method (400, 500) comprising: detecting (410, 510), by a first fabric edge node, a Link Aggregation Control Protocol, LACP, system on a first fabric network; registering (420,520), by the first fabric edge node in response to detecting the LACP system, a LACP system identifier associated with the detected LACP system into a host tracking database, wherein the LACP system identifier is registered with a unique fabric address associated with a first fabric edge node; querying, by the first fabric edge node in response to detecting the LACP system, the host tracking database; determining, by the first fabric edge node in response to querying the host tracking database, that a second fabric edge node is registered in the host tracking database as being associated with the detected LACP system, wherein the first fabric edge node and the second fabric edge node are not connected via a direct Layer-2 peering link; and initiating, by the first fabric edge node in response to determining that the second fabric edge node is registered in the host tracking database, peering over the first fabric network via a fabric Layer-2 service using a multi-chassis ether-channel, MCEC, between the first fabric edge node and the second fabric edge node registered as associated with the detected LACP system. detecting (410, 510), by a first fabric edge node, a Link Aggregation Control Protocol, LACP, system on a first fabric network; registering (420,520), by the first fabric edge node in response to detecting the LACP system, a LACP system identifier associated with the detected LACP system into a host tracking database, wherein the LACP system identifier is registered with a unique fabric address associated with a first fabric edge node; querying, by the first fabric edge node in response to detecting the LACP system, the host tracking database; determining, by the first fabric edge node in response to querying the host tracking database, that a second fabric edge node is registered in the host tracking database as being associated with the detected LACP system, wherein the first fabric edge node and the second fabric edge node are not connected via a direct Layer-2 peering link; and initiating, by the first fabric edge node in response to determining that the second fabric edge node is registered in the host tracking database, peering over the first fabric network via a fabric Layer-2 service using a multi-chassis ether-channel, MCEC, between the first fabric edge node and the second fabric edge node registered as associated with the detected LACP system.
An industrial machine comprising: an actuator; a gear reducer configured to receive a first rotational energy from the actuator and output a second rotational energy; a cutter drum supported by a chassis of the industrial machine, the cutter drum driven by the second rotational energy; a cutter bit coupled to the cutter drum; a sensor configured to sense a characteristic of the industrial machine; and a controller, having a processor and memory, the controller configured to receive the characteristic of the industrial machine, characterized in that the controller is further configured to determine a cutting efficiency based on the characteristic of the industrial machine, and output the cutting efficiency. an actuator; a gear reducer configured to receive a first rotational energy from the actuator and output a second rotational energy; a cutter drum supported by a chassis of the industrial machine, the cutter drum driven by the second rotational energy; a cutter bit coupled to the cutter drum; a sensor configured to sense a characteristic of the industrial machine; and a controller, having a processor and memory, the controller configured to receive the characteristic of the industrial machine, determine a cutting efficiency based on the characteristic of the industrial machine, and output the cutting efficiency.
An ultrasonic imaging system, comprising: an ultrasound imaging device configured to acquire an image in an electrocardiograph multi-beat acquisition mode, in which the image is formed from image data acquired in successive cardiac cycles and temporally aligned employing electrocardiography gating; a quality scoring module stored in memory and configured to compute a quality score indicating a suitability of the image, using a motion between cardiac cycles detected by at least one motion detection source; and a display for viewing the image and displaying the quality score as real-time feedback for the image, wherein the at least one motion detection source comprises at least one motion measurement device for determining relative motion between an imaging device and a subject being imaged, wherein the motion measurement device is one of electromagnetic sensors, optical sensors, or accelerometers placed in or around an imaging probe for the ultrasound imaging device. an ultrasound imaging device configured to acquire an image in an electrocardiograph multi-beat acquisition mode, in which the image is formed from image data acquired in successive cardiac cycles and temporally aligned employing electrocardiography gating; a quality scoring module stored in memory and configured to compute a quality score indicating a suitability of the image, using a motion between cardiac cycles detected by at least one motion detection source; and a display for viewing the image and displaying the quality score as real-time feedback for the image, wherein the at least one motion detection source comprises at least one motion measurement device for determining relative motion between an imaging device and a subject being imaged, wherein the motion measurement device is one of electromagnetic sensors, optical sensors, or accelerometers placed in or around an imaging probe for the ultrasound imaging device.
A method for handling data in a distributed computing environment comprising at least one server and a plurality of clients comprising at least a first client and a second client, the method comprising, at the first client: sending a first request for data to the second client; receiving a first response from the second client as a response to the first request; determining a probability of validity of the data requested by the first request and available from the second client based on a validity indication included in the first response indicating a probability that the data requested from the second client is invalid comprising: estimating a time of receipt of the data from the second client based on a size of the requested data included in the first response and a given bandwidth of a connection to the second client, and determining the probability of validity of the data at the estimated time of receipt; and in response to determining that the data requested by the first request and available from the second client is likely invalid, sending a second request to the server to obtain the data from the server; receiving the data from the server in a second response to the second request, wherein the second response includes a validity indication indicating a probability that the data requested from the server is invalid, the method further comprising: storing the data received from the server associated with the validity indication included in the second response. sending a first request for data to the second client; receiving a first response from the second client as a response to the first request; determining a probability of validity of the data requested by the first request and available from the second client based on a validity indication included in the first response indicating a probability that the data requested from the second client is invalid comprising: estimating a time of receipt of the data from the second client based on a size of the requested data included in the first response and a given bandwidth of a connection to the second client, and determining the probability of validity of the data at the estimated time of receipt; and estimating a time of receipt of the data from the second client based on a size of the requested data included in the first response and a given bandwidth of a connection to the second client, and determining the probability of validity of the data at the estimated time of receipt; and in response to determining that the data requested by the first request and available from the second client is likely invalid, sending a second request to the server to obtain the data from the server; receiving the data from the server in a second response to the second request, wherein the second response includes a validity indication indicating a probability that the data requested from the server is invalid, the method further comprising: storing the data received from the server associated with the validity indication included in the second response.