mhurhangee/ep-ind-claims huggingface dataset:
A microwave power delivery system for supplying microwave power to a plurality of microwave plasma reactors, the microwave power delivery system comprising: a tuner configured to be coupled to a microwave source and configured to match impedance of the plurality of microwave plasma reactors to that of the microwave source; and a waveguide junction coupled to the tuner and configured to guide microwaves to and from the plurality of microwave plasma reactors, wherein the waveguide junction comprises four waveguide ports including a first port coupled to the tuner, second and third ports configured to be coupled to respective microwave plasma reactors, and a fourth port coupled to a microwave sink, wherein the waveguide junction is configured to evenly split microwave power input from the tuner through the first port between the second and third ports such that, in use, microwave power is provided to respective microwave plasma reactors, wherein the waveguide junction is configured to decouple the second and third ports such that, in use, any reflected microwaves from one of the microwave plasma reactors are prevented from feeding across the waveguide junction directly into another microwave plasma reactor causing an imbalance, wherein the waveguide junction is further configured to feed reflected microwaves received back through the second and third ports which are balanced in terms of magnitude and phase to the tuner such that, in use, they can be reflected by the tuner and re-used, and wherein the waveguide junction is further configured to feed excess reflected power which is not balanced through the fourth port into the microwave sink. a tuner configured to be coupled to a microwave source and configured to match impedance of the plurality of microwave plasma reactors to that of the microwave source; and a waveguide junction coupled to the tuner and configured to guide microwaves to and from the plurality of microwave plasma reactors, wherein the waveguide junction comprises four waveguide ports including a first port coupled to the tuner, second and third ports configured to be coupled to respective microwave plasma reactors, and a fourth port coupled to a microwave sink, wherein the waveguide junction is configured to evenly split microwave power input from the tuner through the first port between the second and third ports such that, in use, microwave power is provided to respective microwave plasma reactors, wherein the waveguide junction is configured to decouple the second and third ports such that, in use, any reflected microwaves from one of the microwave plasma reactors are prevented from feeding across the waveguide junction directly into another microwave plasma reactor causing an imbalance, wherein the waveguide junction is further configured to feed reflected microwaves received back through the second and third ports which are balanced in terms of magnitude and phase to the tuner such that, in use, they can be reflected by the tuner and re-used, and wherein the waveguide junction is further configured to feed excess reflected power which is not balanced through the fourth port into the microwave sink.
A method in a wireless network environment in which signal strengths data can be detected, the method comprising: obtaining, by a first mobile network device registered with a proximity server (204 1; 204 2; 204 3), first signal strength data with respect to signals received from at least one base station (202 1; 202 2; 202 3; 202 4; 302 1; 302 2; 302 3; 302 4; 302 n); sending to the proximity server, by the first mobile network device, the first signal strength data as a first signature, measuring, by a second mobile network device, second signal strength data, wherein the second mobile network device is registered with the proximity server, reporting to the proximity server, by the second mobile network device, the second signal strength data as a second signature, estimating, by the proximity server, the distance between the first mobile network device and the second mobile network device, wherein the distance is related to the similarity of their signatures, wherein estimating the physical distance of a pair of signatures is based on numerical features created from the two signatures, wherein estimating the approximate distance from the first mobile network device to the second mobile network device comprises the feature of the number of base stations which are detected in common between the first mobile network device and the second mobile network device, and comprises the feature of a correlation coefficient being a number which represents how closely the first and the second mobile device rank the base stations which are detected in common by signal strength. obtaining, by a first mobile network device registered with a proximity server (204 1; 204 2; 204 3), first signal strength data with respect to signals received from at least one base station (202 1; 202 2; 202 3; 202 4; 302 1; 302 2; 302 3; 302 4; 302 n); sending to the proximity server, by the first mobile network device, the first signal strength data as a first signature, measuring, by a second mobile network device, second signal strength data, wherein the second mobile network device is registered with the proximity server, reporting to the proximity server, by the second mobile network device, the second signal strength data as a second signature, estimating, by the proximity server, the distance between the first mobile network device and the second mobile network device, wherein the distance is related to the similarity of their signatures, wherein estimating the physical distance of a pair of signatures is based on numerical features created from the two signatures, wherein estimating the approximate distance from the first mobile network device to the second mobile network device comprises the feature of the number of base stations which are detected in common between the first mobile network device and the second mobile network device, and comprises the feature of a correlation coefficient being a number which represents how closely the first and the second mobile device rank the base stations which are detected in common by signal strength.
A switch (11, 51, 62, 72) comprising: a base; a pair of fixing terminals (31, 36, 63, 73) standing on an upper surface of the base so as to face each other; an insulating wall section integrated with at least one of the fixing terminals (31, 36, 63, 73); a push button movable upward and downward in an axial direction; and a slider (41, 52, 70, 81) movable upward and downward with the push button, wherein the slider (41, 52, 70, 81) has elastic arm sections (43, 54) in both ends thereof, the elastic arm sections (43, 54) having movable contact portions (48, 49, 59, 60, 86) that are brought into sliding contact with the fixing terminals (31, 36, 63, 73) or the insulating wall section while pressing the fixing terminals (31, 36, 63, 73) or the insulating wall section from one side, and the switch (11, 51, 62, 72) configured to enable the movable contact portions (48, 49, 59, 60, 86) to connect to and separate from the fixing terminals (31, 36, 63, 73) based on operation of said push button upward and downward; characterised in that the elastic arm sections (43, 54) include support pieces (45, 56, 83) extending from both side edges of a coupling body (42, 53) and bent in a single direction, and the elastic arm sections (43, 54) have elastic pieces (47, 58, 85), sheared and bent outward from the support pieces (45, 56, 83) into a V shape, and the movable contact portions (48, 49, 59, 60, 86) are provided in tip ends of the elastic pieces (47, 58, 85). a base; a pair of fixing terminals (31, 36, 63, 73) standing on an upper surface of the base so as to face each other; an insulating wall section integrated with at least one of the fixing terminals (31, 36, 63, 73); a push button movable upward and downward in an axial direction; and a slider (41, 52, 70, 81) movable upward and downward with the push button, wherein the slider (41, 52, 70, 81) has elastic arm sections (43, 54) in both ends thereof, the elastic arm sections (43, 54) having movable contact portions (48, 49, 59, 60, 86) that are brought into sliding contact with the fixing terminals (31, 36, 63, 73) or the insulating wall section while pressing the fixing terminals (31, 36, 63, 73) or the insulating wall section from one side, and the switch (11, 51, 62, 72) configured to enable the movable contact portions (48, 49, 59, 60, 86) to connect to and separate from the fixing terminals (31, 36, 63, 73) based on operation of said push button upward and downward; characterised in that the elastic arm sections (43, 54) include support pieces (45, 56, 83) extending from both side edges of a coupling body (42, 53) and bent in a single direction, and the elastic arm sections (43, 54) have elastic pieces (47, 58, 85), sheared and bent outward from the support pieces (45, 56, 83) into a V shape, and the movable contact portions (48, 49, 59, 60, 86) are provided in tip ends of the elastic pieces (47, 58, 85).
A modular disengaging system for interfacing with the body of a user, comprising: a first layer couplable to a body-facing surface of a protective equipment; a second layer positioned adjacent to the first layer; and a third layer positioned adjacent to the second layer; a fourth layer comprising a plurality of fourth layer portions (30a-c) positioned adjacent and coupled to the third layer, each of the plurality of fourth layer portions (30a-c) being configured to contact the body of the user, wherein spaces are disposed between the plurality of fourth layer portions (30a-c); wherein the first layer is coupled to the third layer to form an enveloped space enclosing at least a portion of the second layer between the first layer and the third layer; wherein the second layer is configured to facilitate relative lateral motion between the first layer and the third layer upon an impact force acting on the modular disengaging system to reduce rotational acceleration and linear acceleration of the body of the user. a first layer couplable to a body-facing surface of a protective equipment; a second layer positioned adjacent to the first layer; and a third layer positioned adjacent to the second layer; a fourth layer comprising a plurality of fourth layer portions (30a-c) positioned adjacent and coupled to the third layer, each of the plurality of fourth layer portions (30a-c) being configured to contact the body of the user, wherein spaces are disposed between the plurality of fourth layer portions (30a-c); wherein the first layer is coupled to the third layer to form an enveloped space enclosing at least a portion of the second layer between the first layer and the third layer; wherein the second layer is configured to facilitate relative lateral motion between the first layer and the third layer upon an impact force acting on the modular disengaging system to reduce rotational acceleration and linear acceleration of the body of the user.
A motor control device of controlling a motor unit that drives a wheel, the motor unit being provided in an electric vehicle, the motor control device comprising: a temperature sensor (Sa) that is associated with a motor coil of the motor unit and is configured to sense a temperature Tc of the motor coil; and a motor current limiter configured to set a plurality of threshold values (T 1 -T 4) of the temperature Tc sensed by the temperature sensor (Sa), to set current limiting conditions that are different from each other for respective sectioned temperature ranges (Ar1-Ar4) defined by the threshold values (T 1 -T 4), and to limit a current for the motor unit according to the current limiting condition for the temperature range (Ar1-Ar4) to which the temperature Tc having been sensed belongs, characterized in that, if a time difference dTc/dt of a motor coil temperature obtained by differentiating the temperature Tc with respect to a time t indicates a positive value, the motor current limiter allows an allowable upper limit of the time difference dTc/dt of the motor coil temperature to vary depending on the sectioned temperature ranges, wherein the motor current limiter sets, for the respective temperature ranges (ar1-Ar4) to one of which the temperature Tc having been sensed belongs, the allowable upper limits of the time difference dTc/dt of the motor coil temperature obtained by differentiating the temperature Tc with respect to the time t so that the allowable upper limit for the temperature range with higher temperature is smaller than the allowable upper limit for the temperature range with lower temperature. a temperature sensor (Sa) that is associated with a motor coil of the motor unit and is configured to sense a temperature Tc of the motor coil; and a motor current limiter configured to set a plurality of threshold values (T 1 -T 4) of the temperature Tc sensed by the temperature sensor (Sa), to set current limiting conditions that are different from each other for respective sectioned temperature ranges (Ar1-Ar4) defined by the threshold values (T 1 -T 4), and to limit a current for the motor unit according to the current limiting condition for the temperature range (Ar1-Ar4) to which the temperature Tc having been sensed belongs, characterized in that, if a time difference dTc/dt of a motor coil temperature obtained by differentiating the temperature Tc with respect to a time t indicates a positive value, the motor current limiter allows an allowable upper limit of the time difference dTc/dt of the motor coil temperature to vary depending on the sectioned temperature ranges, wherein the motor current limiter sets, for the respective temperature ranges (ar1-Ar4) to one of which the temperature Tc having been sensed belongs, the allowable upper limits of the time difference dTc/dt of the motor coil temperature obtained by differentiating the temperature Tc with respect to the time t so that the allowable upper limit for the temperature range with higher temperature is smaller than the allowable upper limit for the temperature range with lower temperature.
An amorphous solid dispersion comprising Compound 1: and a polymer, wherein the polymer is selected from the group consisting of hydroxypropylmethyl cellulose (HPMC), hydroxypropylmethyl cellulose acetate succinate (HPMC AS), hydroxypropyl methyl cellulose phthalate (HPMCP), hydroxypropyl cellulose, ethylcellulose, cellulose acetate phthalate, polyvinylpyrrolidone and a combination thereof, and wherein the weight ratio of Compound 1 to polymer is in the range of about 2:1 to about 1:3. wherein the polymer is selected from the group consisting of hydroxypropylmethyl cellulose (HPMC), hydroxypropylmethyl cellulose acetate succinate (HPMC AS), hydroxypropyl methyl cellulose phthalate (HPMCP), hydroxypropyl cellulose, ethylcellulose, cellulose acetate phthalate, polyvinylpyrrolidone and a combination thereof, and wherein the weight ratio of Compound 1 to polymer is in the range of about 2:1 to about 1:3.
Electrical connection terminal for an electrical apparatus intended to electrically link the land of said apparatus to a connection comb and/or to a power supply cable, comprising a grip having a fixed part and a mobile part, said grip being linked electrically to said land and suitable for gripping a tooth of said comb in a connection position and a clamping terminal suitable, in a clamping position, for clamping a cable against said connection land of the appliance, said terminal comprising a screw for clamping the tooth against the land in the clamping position of the terminal, the tooth being clamped between the fixed part of the grip and the mobile part of said grip, such that the current originating from the cable passes through the land and into the tooth without passing through the mobile part of the grip, characterized in that the grip is U-shaped and in that the foot of the screw passes through an orifice provided in the mobile part of the grip.
A toilet cubicle comprising a sitting toilet, an enclosure with an inflatable support device and an enclosure supported by the support device, and a floor system with a base and at least two side members which can be pivoted relative to the base, wherein the side members (26, 28) are adjustable between a transport position, in which the side members (26, 28), along with the base, form a storage body for the enclosure and the sitting toilet, and an operating position, in which the side members (26, 28), along with the base, form a floor, wherein the toilet cubicle in the transport position corresponds to the dimensions of a suit case. a sitting toilet, an enclosure with an inflatable support device and an enclosure supported by the support device, and a floor system with a base and at least two side members which can be pivoted relative to the base, wherein the side members (26, 28) are adjustable between a transport position, in which the side members (26, 28), along with the base, form a storage body for the enclosure and the sitting toilet, and an operating position, in which the side members (26, 28), along with the base, form a floor, wherein the toilet cubicle in the transport position corresponds to the dimensions of a suit case.
Method for producing a motor vehicle stabiliser, a stabiliser rod being configured as a hollow tubular component, characterised by the method steps of: - providing a steel strip made of a high-manganese-content steel alloy which has TWIP and/or TRIP properties and has the following composition, expressed in percentages: carbon: max. 2 % manganese (Mn): 10-30% silicon (Si): max. 6 % aluminium (Al): max. 8 % niobium (Nb): max. 1 % vanadium: max. 1 % titanium (Ti): max. 1 % the remainder being iron and companion elements; - forming a tubular profile from the steel strip and longitudinal seam welding of the tubular profile; - bending the stabiliser rod. - providing a steel strip made of a high-manganese-content steel alloy which has TWIP and/or TRIP properties and has the following composition, expressed in percentages: carbon: max. 2 % manganese (Mn): 10-30% silicon (Si): max. 6 % aluminium (Al): max. 8 % niobium (Nb): max. 1 % vanadium: max. 1 % titanium (Ti): max. 1 % the remainder being iron and companion elements; - forming a tubular profile from the steel strip and longitudinal seam welding of the tubular profile; - bending the stabiliser rod.
A solid state fermentation device, characterised in that it includes - a rigid outer mould - an inner portion forming a removable single-use fermentation chamber, formed from a flexible material and comprising 2 portions, - the lower portion, or lower chamber, is harder and has a shape almost identical to that of the container, - the upper portion or upper chamber, intended to enclose the material to be fermented, formed by a more flexible material, its effective volume being greater than that of the lower portion, - aeration means being provided between these 2 portions. - a rigid outer mould - an inner portion forming a removable single-use fermentation chamber, formed from a flexible material and comprising 2 portions, - the lower portion, or lower chamber, is harder and has a shape almost identical to that of the container, - the upper portion or upper chamber, intended to enclose the material to be fermented, formed by a more flexible material, its effective volume being greater than that of the lower portion, - aeration means being provided between these 2 portions.
A method for manufacturing a distractor for skeletal attachment to a jaw of a patient, wherein the distractor is exactly adapted to the anatomic conditions of the patient, comprising the steps of (a) generating a three-dimensional image of the jaw of the patient or of parts of the jaw; (b) generating a virtual model of a patient-specific distractor using the three-dimensional image; and (c) manufacturing the distractor or parts thereof with the help of the virtual model by means of 3D printing. (a) generating a three-dimensional image of the jaw of the patient or of parts of the jaw; (b) generating a virtual model of a patient-specific distractor using the three-dimensional image; and (c) manufacturing the distractor or parts thereof with the help of the virtual model by means of 3D printing.
An assembly comprising a ureteral stent and a pusher assembly for positioning the ureteral stent in a kidney (10,12), ureteral passageway (16,18) and bladder of a patient, the pusher assembly including: an inner stent pusher including a body having a first end, a second end, a lumen extending therebetween, and a handle member coupled to the first end of the body; and an outer stent pusher including a body having a first end, a second end, and a lumen extending therebetween, and a handle member coupled to the first end of the body, wherein the body of the inner stent pusher has an axial length greater than an axial length of the body of the outer stent pusher, and wherein the body of the inner stent pusher has an outer diameter that is less than an inner diameter of the body of the outer stent pusher to allow the inner stent pusher to move through the lumen of the outer stent pusher during placement of the ureteral stent, characterized in the ureteral stent including: a bladder portion configured to be positioned in the bladder; a kidney portion configured to be positioned in the kidney (10, 12) and the ureteral passageway (16, 18); and one or more tethers connecting the bladder portion and the kidney portion; wherein the inner stent pusher is configured to move through the bladder portion of the ureteral stent during placement to allow the second end of the inner stent pusher to abut an end of the kidney portion of the ureteral stent to advance the kidney portion into the kidney (12, 12) while the bladder portion is in the bladder; wherein the second end of the outer stent pusher is configured to abut an end of the bladder portion while another end of the bladder portion abuts the end of the kidney portion during placement to advance the bladder portion and kidney portion. an inner stent pusher including a body having a first end, a second end, a lumen extending therebetween, and a handle member coupled to the first end of the body; and an outer stent pusher including a body having a first end, a second end, and a lumen extending therebetween, and a handle member coupled to the first end of the body, wherein the body of the inner stent pusher has an axial length greater than an axial length of the body of the outer stent pusher, and a bladder portion configured to be positioned in the bladder; a kidney portion configured to be positioned in the kidney (10, 12) and the ureteral passageway (16, 18); and one or more tethers connecting the bladder portion and the kidney portion;