mhurhangee/ep-ind-claims huggingface dataset:
A compound represented by formula (Ib) wherein: R 4 is hydrogen; R 5 is selected from H, and C 1 -C 4 alkyl; R 6 is selected from H, C 1 -C 12 alkyl, halogen, NO 2, and CONHR 13, wherein R 13 is substituted phenyl; R 7 is selected from hydroxyl and C 1 -C 4 alkoxyl; and R 8 is selected from Cl-C4 alkyl and NO 2; R' 2 is selected from H, OH, CO 2 H, R' 3 is selected from H, OH, CO 2 H, CF 3, OCH 2 CO 2 H, R' 4 is selected from H, OH, CO 2 H, CO 2 Et, iodo, NO 2, OCH 3, SO 3 H, SO 2 NH 2, SO 2 NH(C=NH)NH 2, and R' 5, R' 6 are each H. R 4 is hydrogen; R 5 is selected from H, and C 1 -C 4 alkyl; R 6 is selected from H, C 1 -C 12 alkyl, halogen, NO 2, and CONHR 13, wherein R 13 is substituted phenyl; R 7 is selected from hydroxyl and C 1 -C 4 alkoxyl; and R 8 is selected from Cl-C4 alkyl and NO 2; R' 2 is selected from H, OH, CO 2 H, R' 3 is selected from H, OH, CO 2 H, CF 3, OCH 2 CO 2 H, R' 4 is selected from H, OH, CO 2 H, CO 2 Et, iodo, NO 2, OCH 3, SO 3 H, SO 2 NH 2, SO 2 NH(C=NH)NH 2, and R' 5, R' 6 are each H.
Solar simulator comprising at least at least one high-intensity discharge lamp type, and at least one halogen lamp type, which lamps are applied simultaneously and are provided with infrared filter means to provide a mixture of light approximating radiated sunlight, characterized in that the infrared filter means are embodied as heat reflective foil mounted on a transparent substrate, wherin the heat reflective foil is provided with a repetitive pattern of perforations.
A diaper with a liquid sensing system comprising: a sensor array comprised of a set of elongated and flat uniformly shaped conducting lines (210, 220), wherein the conducting lines are uniform in shape and substantially parallel extending along an inner surface of a moisture barrier layer, wherein the sensor array has a measured gradient of conductance in a dry state; wherein a pair of the conducting lines (210, 220) define an array sensing region that is configured for measuring a gradient of conductance values in the sensing region upon a presence of a liquid contained by the moisture barrier layer; a data acquisition unit operably connected to the sensor array comprising signal processing elements, wherein the data acquisition unit comprises a multiplexer configured for receiving analog voltage signals from the array sensing region of the sensor array and measuring the gradient of conductance values between each of the pair of conducting lines (210, 220) defining the array sensing region, a read circuit configured for measuring the voltage signals, and an analog to digital converter configured for converting the voltage signals to numeric representation and combinations thereof. a sensor array comprised of a set of elongated and flat uniformly shaped conducting lines (210, 220), wherein the conducting lines are uniform in shape and substantially parallel extending along an inner surface of a moisture barrier layer, wherein the sensor array has a measured gradient of conductance in a dry state; wherein a pair of the conducting lines (210, 220) define an array sensing region that is configured for measuring a gradient of conductance values in the sensing region upon a presence of a liquid contained by the moisture barrier layer; a data acquisition unit operably connected to the sensor array comprising signal processing elements, wherein the data acquisition unit comprises a multiplexer configured for receiving analog voltage signals from the array sensing region of the sensor array and measuring the gradient of conductance values between each of the pair of conducting lines (210, 220) defining the array sensing region, a read circuit configured for measuring the voltage signals, and an analog to digital converter configured for converting the voltage signals to numeric representation and combinations thereof.
Manual resuscitation bag comprising: - a deformable bag comprising a gas inlet and a gas outlet, - a first conduit element fluidly connected to the gas inlet of the deformable bag, and - a first PEP exhaust valve arranged in the first conduit element and fluidly communicating with the ambient atmosphere for venting gas to the atmosphere when the gas pressure, into the first conduit element, exceeds a given pressure threshold, said first PEP exhaust valve comprising a valve body and means (6, 12; 7-10) for setting a desired pressure threshold, characterized in that the means (6,12; 7-10) for setting the pressure threshold comprise: - a rotatable member, actuatable by a user, arranged on the valve body and cooperating with pressure adjusting means arranged into the valve body, and - a support member comprising several markings corresponding to several settable pressure values, arranged between the rotatable member and the valve body, and wherein the rotatable member further comprises a reading window that can be positioned so as to face one of the markings, when the user actuates the rotatable member, thereby selecting a pressure threshold corresponding to one of the pressure values indicated by the markings that is readable through said reading window. - a deformable bag comprising a gas inlet and a gas outlet, - a first conduit element fluidly connected to the gas inlet of the deformable bag, and - a first PEP exhaust valve arranged in the first conduit element and fluidly communicating with the ambient atmosphere for venting gas to the atmosphere when the gas pressure, into the first conduit element, exceeds a given pressure threshold, said first PEP exhaust valve comprising a valve body and means (6, 12; 7-10) for setting a desired pressure threshold, - a rotatable member, actuatable by a user, arranged on the valve body and cooperating with pressure adjusting means arranged into the valve body, and - a support member comprising several markings corresponding to several settable pressure values, arranged between the rotatable member and the valve body,
Procedure for obtaining a fireproof material piece characterized in that it comprises: a) subjecting a piece of a material selected from group comprising wood, metal, plaster, cardboard, plasterboard, wood pulp, polymers, ceramics or mixtures thereof, to a depressurization in an autoclave between 40 and 50 bars for a period of 8 to 20 minutes, b) introducing a fireproof liquid into said autoclave and keeping the process of step (a) over a length of 25 to 40 minutes, c) removing the previous step pieces from the autoclave and putting them in a dryer at a temperature between 15 and 25°C for 8 to 15 days. a) subjecting a piece of a material selected from group comprising wood, metal, plaster, cardboard, plasterboard, wood pulp, polymers, ceramics or mixtures thereof, to a depressurization in an autoclave between 40 and 50 bars for a period of 8 to 20 minutes, b) introducing a fireproof liquid into said autoclave and keeping the process of step (a) over a length of 25 to 40 minutes, c) removing the previous step pieces from the autoclave and putting them in a dryer at a temperature between 15 and 25°C for 8 to 15 days.
An information processing device comprising: an acquisition unit configured to obtain measurement data; an operation acceptance unit configured to accept specification of time in the measurement data as a specified time; a removal unit configured to reduce noise from the measurement data using each one of a plurality of methods; an evaluation unit configured to evaluate a result of noise reduction at the specified time accepted through the operation acceptance unit, the noise reduction being performed for the measurement data by the removal unit using each one of the plurality of methods; and characterized by a selection unit configured to select one of the plurality of methods based on evaluation made by the evaluation unit; wherein the evaluation unit is configured to calculate a degree of approximation between a prescribed magnetic field and a magnetic field caused by a dipole estimated from the measurement data, from which noise has been removed by the removal unit using each one of the plurality of methods, at the specified time accepted through the operation acceptance unit, and is configured to evaluate the result of noise reduction using the calculated degree of approximation. an acquisition unit configured to obtain measurement data; an operation acceptance unit configured to accept specification of time in the measurement data as a specified time; a removal unit configured to reduce noise from the measurement data using each one of a plurality of methods; an evaluation unit configured to evaluate a result of noise reduction at the specified time accepted through the operation acceptance unit, the noise reduction being performed for the measurement data by the removal unit using each one of the plurality of methods; and characterized by a selection unit configured to select one of the plurality of methods based on evaluation made by the evaluation unit; wherein the evaluation unit is configured to calculate a degree of approximation between a prescribed magnetic field and a magnetic field caused by a dipole estimated from the measurement data, from which noise has been removed by the removal unit using each one of the plurality of methods, at the specified time accepted through the operation acceptance unit, and is configured to evaluate the result of noise reduction using the calculated degree of approximation.
An antenna device comprising a ground conductor plate and an antenna element, wherein the antenna element includes: a first vertical portion and a second vertical portion which are erected substantially perpendicularly from the ground conductor plate; and a connecting portion (13, 14, 15) which includes a portion extending substantially parallel to the ground conductor plate and which connects one end of the first vertical portion and one end of the second vertical portion to each other, wherein the other end of the first vertical portion serves as a feeding point and is located at a position that is distant from an outer periphery of the ground conductor plate to a center side of the ground conductor plate, wherein the other end of the second vertical portion is grounded, wherein the connecting portion (13, 14, 15) includes an along-edge portion (14, 15) which extends along the outer periphery of the ground conductor plate when viewed from a direction perpendicular to the ground conductor plate, characterized in that the feeding point is located within a virtual area whose center is common to a center of the ground conductor plate and which is formed so as to have an area that is 1/2 of an area of the ground conductor plate by reducing the ground conductor plate by a same factor in longitudinal and lateral directions. wherein the antenna element includes: a first vertical portion and a second vertical portion which are erected substantially perpendicularly from the ground conductor plate; and a connecting portion (13, 14, 15) which includes a portion extending substantially parallel to the ground conductor plate and which connects one end of the first vertical portion and one end of the second vertical portion to each other, a first vertical portion and a second vertical portion which are erected substantially perpendicularly from the ground conductor plate; and a connecting portion (13, 14, 15) which includes a portion extending substantially parallel to the ground conductor plate and which connects one end of the first vertical portion and one end of the second vertical portion to each other, wherein the other end of the first vertical portion serves as a feeding point and is located at a position that is distant from an outer periphery of the ground conductor plate to a center side of the ground conductor plate, wherein the other end of the second vertical portion is grounded, wherein the connecting portion (13, 14, 15) includes an along-edge portion (14, 15) which extends along the outer periphery of the ground conductor plate when viewed from a direction perpendicular to the ground conductor plate, characterized in that the feeding point is located within a virtual area whose center is common to a center of the ground conductor plate and which is formed so as to have an area that is 1/2 of an area of the ground conductor plate by reducing the ground conductor plate by a same factor in longitudinal and lateral directions.
Method for processing a test digital signal comprising following steps: - acquiring (110, 120, 130) an input digital signal F(t) function of time t in the form of two-dimensional data (t, F(t)), said signal F(t) resulting from the excitation, within a test substrate, of a substance adapted to emit a signal in response to said excitation; - modeling said input digital signal F(t) in function of a pre-established model; - generating an output digital signal I(t) made up from said modeling; characterized in that said modeling is based on the following model: I t = a 0 + a 1 - a 0 * A + t a 2 p B + t a 2 q where the coefficients a 0, a 1, a 2, p, q, A et B are estimated on the basis of said two-dimensional data. - acquiring (110, 120, 130) an input digital signal F(t) function of time t in the form of two-dimensional data (t, F(t)), said signal F(t) resulting from the excitation, within a test substrate, of a substance adapted to emit a signal in response to said excitation; - modeling said input digital signal F(t) in function of a pre-established model; - generating an output digital signal I(t) made up from said modeling;
Cable transportation installation comprising: - a cable, - a plurality of pillars each provided with at least one sheave, the cable being arranged pressing on the at least one sheave of the plurality of pillars, at least one pillar of the plurality of pillars being provided with at least one fuse defining a first state allowing a signal to pass and a second state preventing the signal from passing, - a detection device (6, 7, 8) configured to detect at least one event on a cable, the detection device (6, 7, 8) making a signal flow through the at least one fuse to monitor the state of the at least one fuse, the at least one fuse being configured to change state between the first state and the second state when the at least one fuse detects said at least one event on a cable, the detection device (6, 7, 8) being configured to emit an alarm in response to detection of a change of state of the at least one fuse, characterised in that the at least one fuse is an optical fuse that comprises an optical fibre, in that the detection device (6, 7, 8) comprises a transmitter device configured to transmit an optical signal, a receiver device configured to receive said optical signal, the transmitter device being connected to the receiver device by the at least one optical fuse, and in that the at least one optical fuse is configured to change state when said at least one optical fuse is mechanically stressed by the cable. - a cable, - a plurality of pillars each provided with at least one sheave, the cable being arranged pressing on the at least one sheave of the plurality of pillars, at least one pillar of the plurality of pillars being provided with at least one fuse defining a first state allowing a signal to pass and a second state preventing the signal from passing, - a detection device (6, 7, 8) configured to detect at least one event on a cable, the detection device (6, 7, 8) making a signal flow through the at least one fuse to monitor the state of the at least one fuse, the at least one fuse being configured to change state between the first state and the second state when the at least one fuse detects said at least one event on a cable, the detection device (6, 7, 8) being configured to emit an alarm in response to detection of a change of state of the at least one fuse,
A musical instrument string comprising: a core material, a wound string around the core material; and a polymer cover (1, 30) for surrounding at least a portion of the wound string, the cover comprising: a film of porous fluoropolymer having top and bottom surfaces; characterised in that the cover also comprises UV-cured resin applied to at least a portion of the film, wherein the UV-cured resin is a low temperature resin being capable of curing or forming a durable bond when processed at a temperature less than about 300°C. a core material, a wound string around the core material; and a polymer cover (1, 30) for surrounding at least a portion of the wound string, the cover comprising: a film of porous fluoropolymer having top and bottom surfaces; characterised in that the cover also comprises UV-cured resin applied to at least a portion of the film, wherein the UV-cured resin is a low temperature resin being capable of curing or forming a durable bond when processed at a temperature less than about 300°C. a film of porous fluoropolymer having top and bottom surfaces; characterised in that the cover also comprises UV-cured resin applied to at least a portion of the film, wherein the UV-cured resin is a low temperature resin being capable of curing or forming a durable bond when processed at a temperature less than about 300°C.
Saddle type vehicle, comprising: a vehicle body comprising a vehicle body frame; a left swing part which is arranged on one side in a vehicle width direction, which is provided so as to extend forward from the vehicle body, and which is supported on the vehicle body so as to be swingable in an up-down direction; a right swing part which is arranged on another side in the vehicle width direction, which is provided so as to extend forward from the vehicle body, and which is supported on the vehicle body so as to be swingable in the up-down direction; a left front wheel rotatably supported by the left swing part; a right front wheel rotatably supported by the right swing part; a holding body held by the vehicle body; and a suspension device which is supported on the holding body and which reduces vibration transmitted from the left front wheel and the right front wheel to the vehicle body, wherein the suspension device is arranged at a position higher than the left swing part and the right swing part, and extends and contracts in conjunction with swings of the left swing part and the right swing part, characterized in that the holding body is formed in a U-shape so as to sandwich the suspension device in a front-back direction, wherein the suspension device includes a support shaft supported on both sides in the front-back direction by the holding body, wherein the suspension device is rotatable about the support shaft, and wherein the U-shape of the holding body is inverted in a side view in such a way that the suspension device is suspended from the vehicle body frame via the holding body. a vehicle body comprising a vehicle body frame; a left swing part which is arranged on one side in a vehicle width direction, which is provided so as to extend forward from the vehicle body, and which is supported on the vehicle body so as to be swingable in an up-down direction; a right swing part which is arranged on another side in the vehicle width direction, which is provided so as to extend forward from the vehicle body, and which is supported on the vehicle body so as to be swingable in the up-down direction; a left front wheel rotatably supported by the left swing part; a right front wheel rotatably supported by the right swing part; a holding body held by the vehicle body; and a suspension device which is supported on the holding body and which reduces vibration transmitted from the left front wheel and the right front wheel to the vehicle body, wherein the suspension device is arranged at a position higher than the left swing part and the right swing part, and extends and contracts in conjunction with swings of the left swing part and the right swing part, characterized in that the holding body is formed in a U-shape so as to sandwich the suspension device in a front-back direction, wherein the suspension device includes a support shaft supported on both sides in the front-back direction by the holding body, wherein the suspension device is rotatable about the support shaft, and wherein the U-shape of the holding body is inverted in a side view in such a way that the suspension device is suspended from the vehicle body frame via the holding body.
An antibody comprising: (i) a variable heavy chain as shown in SEQ ID NO:3 [3C5 Vh] and a variable light chain sequence as shown in SEQ ID NO:4 [3C5 VI]; or (ii) a variable heavy chain region comprising the CDR1, CDR2, and CDR3 loop sequences of a variable heavy chain as shown in SEQ ID NO:3 [3C5 Vh] and a variable light chain region comprising the CDR1, CDR2, and CDR3 loop sequences of a variable light chain as shown in SEQ ID NO:4 [3C5 Vl], wherein the antibody binds to human C5aR and reduces or inhibits the binding of C5a to C5aR. (i) a variable heavy chain as shown in SEQ ID NO:3 [3C5 Vh] and a variable light chain sequence as shown in SEQ ID NO:4 [3C5 VI]; or (ii) a variable heavy chain region comprising the CDR1, CDR2, and CDR3 loop sequences of a variable heavy chain as shown in SEQ ID NO:3 [3C5 Vh] and a variable light chain region comprising the CDR1, CDR2, and CDR3 loop sequences of a variable light chain as shown in SEQ ID NO:4 [3C5 Vl],
An elevator system comprising: an elevator car configured to travel in a hoistway, the elevator car including an elevator car door; a controller configured to control motion of the elevator car; at least one sensor (202, 206, 208, 210) configured to sense an operating condition of the elevator system; and a sensor interface configured to detect a shutdown state of the elevator system in response to the operating condition; and characterized in that: the sensor interface is configured to detect the shutdown state of the elevator system in response to: (i) the elevator car being positioned between landings, the elevator car being stopped and the elevator car not intentionally parked between landings; and/or (ii) the elevator car being stopped at a landing, the elevator car door opening, the elevator car door closing, occupancy detected in the elevator car and the elevator car door opening, occurring in sequence a number of times; and/or (iii) the elevator car moving, occupancy being detected in the elevator car, the elevator car stopping at a landing and the elevator car door not opening for a period of time, occurring in sequence. an elevator car configured to travel in a hoistway, the elevator car including an elevator car door; a controller configured to control motion of the elevator car; at least one sensor (202, 206, 208, 210) configured to sense an operating condition of the elevator system; and a sensor interface configured to detect a shutdown state of the elevator system in response to the operating condition; and characterized in that: the sensor interface is configured to detect the shutdown state of the elevator system in response to: (i) the elevator car being positioned between landings, the elevator car being stopped and the elevator car not intentionally parked between landings; and/or (ii) the elevator car being stopped at a landing, the elevator car door opening, the elevator car door closing, occupancy detected in the elevator car and the elevator car door opening, occurring in sequence a number of times; and/or (iii) the elevator car moving, occupancy being detected in the elevator car, the elevator car stopping at a landing and the elevator car door not opening for a period of time, occurring in sequence. (i) the elevator car being positioned between landings, the elevator car being stopped and the elevator car not intentionally parked between landings; and/or (ii) the elevator car being stopped at a landing, the elevator car door opening, the elevator car door closing, occupancy detected in the elevator car and the elevator car door opening, occurring in sequence a number of times; and/or (iii) the elevator car moving, occupancy being detected in the elevator car, the elevator car stopping at a landing and the elevator car door not opening for a period of time, occurring in sequence.