mhurhangee/ep-ind-claims huggingface dataset:
A method for determining the concentration of an antigen in a sample comprising the steps of: (a) combining in a reaction mixture (i) a sample suspected of containing an antigen, (ii) a capture antibody attached to a microparticle, which capture antibody specifically binds to the antigen, and (iii) a fluorescently labeled detection antibody which specifically binds to the antigen, and allowing formation of a complex comprising the microparticle attached to the capture antibody, the antigen, and the detection antibody; (b) acquiring a white light image of the reaction mixture in order to determine the location of the microparticle in the reaction of step (a) and a fluorescence image of the reaction mixture in order to determine the location of the fluorescently labeled detection antibody in the reaction of step (a); (c) selecting at least one region of interest from the images acquired in step (b), wherein the at least one region of interest is a region from which light signals emanate from the complex formed in step (a); (d) selecting pixels in the at least one region of interest for analysis; (e) calculating and recording the average and variance of the counts per pixel for the pixels selected in step (d), wherein the counts per pixel is the number of photons counted per pixel per unit of time; (f) omitting pixels that have counts greater or less than a specified variance; (g) calculating average counts per pixel of the remaining pixels; and (h) determining the concentration of the antigen from the data in step (g). (a) combining in a reaction mixture (i) a sample suspected of containing an antigen, (ii) a capture antibody attached to a microparticle, which capture antibody specifically binds to the antigen, and (iii) a fluorescently labeled detection antibody which specifically binds to the antigen, and allowing formation of a complex comprising the microparticle attached to the capture antibody, the antigen, and the detection antibody; (b) acquiring a white light image of the reaction mixture in order to determine the location of the microparticle in the reaction of step (a) and a fluorescence image of the reaction mixture in order to determine the location of the fluorescently labeled detection antibody in the reaction of step (a); (c) selecting at least one region of interest from the images acquired in step (b), wherein the at least one region of interest is a region from which light signals emanate from the complex formed in step (a); (d) selecting pixels in the at least one region of interest for analysis; (e) calculating and recording the average and variance of the counts per pixel for the pixels selected in step (d), wherein the counts per pixel is the number of photons counted per pixel per unit of time; (f) omitting pixels that have counts greater or less than a specified variance; (g) calculating average counts per pixel of the remaining pixels; and (h) determining the concentration of the antigen from the data in step (g).
An emergency push button terminal, which comprises a light-emitting display device, characterized in that the display device comprises at least two individual display elements (5a, 6a or 5b, 6b), at least one of the at least two individual display elements (5a, 6a or 5b, 6b) displaying a direction-indicating figure in the activated state and the at least two individual display elements (5a, 6a or 5b, 6b) being switched in an alternating manner.
Inductively heatable tobacco product for aerosol-generation, the tobacco product comprises an aerosol-forming substrate containing a susceptor in the form of a plurality of particles, characterized in that the aerosol-forming substrate is a crimped tobacco sheet comprising tobacco material, fibers, binder, aerosol-former and the susceptor in the form of the plurality of particles.
An organic light emitting device, comprising an anode, a cathode, a light emitting layer disposed between the anode and the cathode; an electron transport layer disposed between the cathode and the light emitting layer, and the electron transport layer comprising a material of an organic metal chelate; and an electron injecting layer disposed between the electron transport layer and the cathode; characterized in that: the organic metal chelate comprises ZnPc, the electron injecting layer is made of Liq, CsF or Cs 2 CO 3. an electron transport layer disposed between the cathode and the light emitting layer, and the electron transport layer comprising a material of an organic metal chelate; and an electron injecting layer disposed between the electron transport layer and the cathode; characterized in that: the organic metal chelate comprises ZnPc, the electron injecting layer is made of Liq, CsF or Cs 2 CO 3.
Hall sensor comprising: - a first Hall element with a first terminal contact, a second terminal contact and a third terminal contact, - a second Hall element with a fourth terminal contact, a fifth terminal contact and a sixth terminal contact, - a third Hall element with a seventh terminal contact, an eighth terminal contact and a ninth terminal contact and - a fourth Hall element 950) with a tenth terminal contact, an eleventh terminal contact and a twelfth terminal contact, - each of the four Hall elements comprising two terminal contacts arranged around a middle terminal contact and the terminal contacts arranged around the middle terminal contact being connected with the terminal contacts, which are arranged the middle terminal contact, of the next Hall elements so that the first Hall element, the second Hall element, the third Hall element and the fourth Hall element are connected in a series, characterised in that in each of the four Hall elements the middle contact is not connected with the two terminal contacts arranged around the middle terminal contact, and the first terminal contact is directly connected with the twelfth terminal contact. - a first Hall element with a first terminal contact, a second terminal contact and a third terminal contact, - a second Hall element with a fourth terminal contact, a fifth terminal contact and a sixth terminal contact, - a third Hall element with a seventh terminal contact, an eighth terminal contact and a ninth terminal contact and - a fourth Hall element 950) with a tenth terminal contact, an eleventh terminal contact and a twelfth terminal contact, - each of the four Hall elements comprising two terminal contacts arranged around a middle terminal contact and the terminal contacts arranged around the middle terminal contact being connected with the terminal contacts, which are arranged the middle terminal contact, of the next Hall elements so that the first Hall element, the second Hall element, the third Hall element and the fourth Hall element are connected in a series, characterised in that in each of the four Hall elements the middle contact is not connected with the two terminal contacts arranged around the middle terminal contact, and the first terminal contact is directly connected with the twelfth terminal contact.
An automatic analyzer comprising: a dispensing mechanism (7, 8, 11, 12) driving a probe (7a, 8a, 11a, 12a) for a specimen or a reagent; a first arm (25; 49) and a second arm (30; 50) of two degrees of freedom supporting the probe (7a, 8a, 11a, 12a); a first shaft and a second shaft (40, 41) that support the first and second arms (25, 30; 49, 50) and transmit power to the first and second arms (25, 30; 49, 50); a plurality of motors (28, 33, 37) that give power allowing the first and second shafts (26, 40, 41) to be rotated and vertically moved, the motors (28, 33, 37) including a first motor for rotating the first shaft, a second motor for rotating the second shaft (40, 41), and a third motor for vertically moving the first shaft and the second shaft (40, 41); and a base that supports a lower end of the second shaft (40, 41), characterized in that the second shaft (40, 41) is divided in an axial direction in an upper shaft and a lower shaft having different diameters, at the time of lowering the first and second arms (25, 30; 49, 50) by the power of the third motor, the upper and lower shafts (40, 41) are housed inside each other, whereby the second shaft (40, 41) is shortened, and the second motor for second shaft rotation that gives power to rotate the second shaft (40, 41) is arranged on a lateral side of the base. a dispensing mechanism (7, 8, 11, 12) driving a probe (7a, 8a, 11a, 12a) for a specimen or a reagent; a first arm (25; 49) and a second arm (30; 50) of two degrees of freedom supporting the probe (7a, 8a, 11a, 12a); a first shaft and a second shaft (40, 41) that support the first and second arms (25, 30; 49, 50) and transmit power to the first and second arms (25, 30; 49, 50); a plurality of motors (28, 33, 37) that give power allowing the first and second shafts (26, 40, 41) to be rotated and vertically moved, the motors (28, 33, 37) including a first motor for rotating the first shaft, a second motor for rotating the second shaft (40, 41), and a third motor for vertically moving the first shaft and the second shaft (40, 41); and a base that supports a lower end of the second shaft (40, 41), characterized in that the second shaft (40, 41) is divided in an axial direction in an upper shaft and a lower shaft having different diameters, at the time of lowering the first and second arms (25, 30; 49, 50) by the power of the third motor, the upper and lower shafts (40, 41) are housed inside each other, whereby the second shaft (40, 41) is shortened, and the second motor for second shaft rotation that gives power to rotate the second shaft (40, 41) is arranged on a lateral side of the base.
A sound and heat insulation shield, comprising a lower and an upper sheet metal layer, and a central layer that is arranged between the lower and the upper sheet metal layer, wherein the central layer comprises a metal fiber mat, and wherein the lower and/or the upper sheet metal layer is at least partially structured, characterized in that the metal fiber mat is at least partially perforated.
A system for detecting the explosive materials Ammonium Nitrate or Trinitrotoluene "TNT", the system comprising: an electromagnetic stimulation source (108a, 108b) to transmit at least W-band frequencies to interact with a sample; at least one electromagnetic emission sensor (116a-c) to detect electromagnetic emissions in response to the transmitted electromagnetic stimulation interacting with the sample, wherein the detected emissions comprise a different set of frequencies than the transmitted frequencies, and the detected emissions are in at least one of the frequency range 50-75 GHz and the frequency range 500-750 GHz; and a processor to provide command and control of the transmitted stimulation and to process detected emissions of the sample to detect the presence of Ammonium Nitrate or Trinitrotoluene. an electromagnetic stimulation source (108a, 108b) to transmit at least W-band frequencies to interact with a sample; at least one electromagnetic emission sensor (116a-c) to detect electromagnetic emissions in response to the transmitted electromagnetic stimulation interacting with the sample, wherein the detected emissions comprise a different set of frequencies than the transmitted frequencies, and the detected emissions are in at least one of the frequency range 50-75 GHz and the frequency range 500-750 GHz; and a processor to provide command and control of the transmitted stimulation and to process detected emissions of the sample to detect the presence of Ammonium Nitrate or Trinitrotoluene.
Surgical instrument, wherein the instrument comprises: - a distal part, wherein the distal part comprises an elongated shaft, at least one working element and an actuation rod, wherein the at least one working element is movably mounted on a distal end of the shaft and wherein a first end of the actuation rod is connected to the at least one working element, - a proximal part, wherein the proximal part is releasably connected to the distal part and wherein the proximal part comprises an actuator device releasably connected to a second end of the actuation rod, wherein the actuator device is configured to move the at least one working element with respect to the shaft by movement of the actuation rod, - a sensor arranged to transmit a signal that is representative for a force exerted on the at least one working element, wherein the sensor is arranged in the actuator device and is configured to measure force and/or strain exerted on the actuator device, wherein the force and/or strain exerted on the actuator device is representative for the force exerted on the at least one working element, characterized in that the actuator device comprises a connection element releasably connected to the second end of the actuation rod, wherein the sensor is arranged on the connection element, wherein the actuator device comprises a trigger, wherein the trigger is configured to transfer a movement to the connection element of the actuator device. - a distal part, wherein the distal part comprises an elongated shaft, at least one working element and an actuation rod, wherein the at least one working element is movably mounted on a distal end of the shaft and wherein a first end of the actuation rod is connected to the at least one working element, - a proximal part, wherein the proximal part is releasably connected to the distal part and wherein the proximal part comprises an actuator device releasably connected to a second end of the actuation rod, wherein the actuator device is configured to move the at least one working element with respect to the shaft by movement of the actuation rod, - a sensor arranged to transmit a signal that is representative for a force exerted on the at least one working element, wherein the sensor is arranged in the actuator device and is configured to measure force and/or strain exerted on the actuator device, wherein the force and/or strain exerted on the actuator device is representative for the force exerted on the at least one working element, characterized in that the actuator device comprises a connection element releasably connected to the second end of the actuation rod, wherein the sensor is arranged on the connection element, wherein the actuator device comprises a trigger, wherein the trigger is configured to transfer a movement to the connection element of the actuator device.
An absorbent article comprising: a moisture-impervious outer layer; an inner layer substantially co-extensive with the outer layer, the inner layer being treated with at least one substance including polydimethylsiloxane and at least one antimicrobial booster, wherein the antimicrobial booster includes at least one of aloe, alkyl diols, ethylenediaminetetraacetic acid, 1,2-hexanediol, 1,2-octanediol, tropolone, 1,2-decanediol, 1,2-pentanediol, and combinations thereof; and an absorbent layer interposed between the outer layer and the inner layer, the absorbent layer being treated with at least one antimicrobial agent, wherein the at least one antimicrobial booster increases the antimicrobial effect of the at least one antimicrobial agent through synergistic action when mixed with the antimicrobial agent. a moisture-impervious outer layer; an inner layer substantially co-extensive with the outer layer, the inner layer being treated with at least one substance including polydimethylsiloxane and at least one antimicrobial booster, wherein the antimicrobial booster includes at least one of aloe, alkyl diols, ethylenediaminetetraacetic acid, 1,2-hexanediol, 1,2-octanediol, tropolone, 1,2-decanediol, 1,2-pentanediol, and combinations thereof; and an absorbent layer interposed between the outer layer and the inner layer, the absorbent layer being treated with at least one antimicrobial agent, wherein the at least one antimicrobial booster increases the antimicrobial effect of the at least one antimicrobial agent through synergistic action when mixed with the antimicrobial agent.
A method for decoding a signal vector in a multiple-input multiple-output transmission scheme, comprising: receiving multiple signal vectors of a first dimension, N r, which are multiple instances of the same transmit signal vector of a second dimension, N t, wherein each of the received signal vectors is associated with a channel response matrix of dimension N r × N t; concatenating N of the received signal vectors into a combined received signal vector (1006, 1100, 1406, 1408) of dimension NN r, wherein N is an integer variable greater than one; concatenating N of the channel response matrices into a combined channel response matrix, H̃, (1008, 1102) of dimension NN r × N t; processing the combined channel response matrix, wherein processing the combined channel response matrix comprises at least one of performing QR decomposition on the combined channel response matrix and calculating the pseudo-inverse of the combined channel response matrix, H̃ †; processing the combined received signal vector using information obtained from processing the combined channel response matrix to produce an equalized signal vector (1414, 1514) of dimension N t, wherein N t < NN r; and decoding the equalized signal vector using the combined channel response matrix. receiving multiple signal vectors of a first dimension, N r, which are multiple instances of the same transmit signal vector of a second dimension, N t, wherein each of the received signal vectors is associated with a channel response matrix of dimension N r × N t; concatenating N of the received signal vectors into a combined received signal vector (1006, 1100, 1406, 1408) of dimension NN r, wherein N is an integer variable greater than one; concatenating N of the channel response matrices into a combined channel response matrix, H̃, (1008, 1102) of dimension NN r × N t; processing the combined channel response matrix, wherein processing the combined channel response matrix comprises at least one of performing QR decomposition on the combined channel response matrix and calculating the pseudo-inverse of the combined channel response matrix, H̃ †; processing the combined received signal vector using information obtained from processing the combined channel response matrix to produce an equalized signal vector (1414, 1514) of dimension N t, wherein N t < NN r; and decoding the equalized signal vector using the combined channel response matrix.
A monoclonal antibody specifically binding to Propionibacterium acnes (P. acnes), wherein the monoclonal antibody is selected from the group consisting of the following antibodies: (a) an antibody including a heavy chain variable region including heavy chain CDR1 set forth in SEQ ID NO: 7, heavy chain CDR2 set forth in SEQ ID NO: 8, and heavy chain CDR3 set forth in SEQ ID NO: 9, and a light chain variable region including light chain CDR1 set forth in SEQ ID NO: 10, light chain CDR2 set forth in SEQ ID NO: 11 and light chain CDR3 set forth in SEQ ID NO: 12; and (b) an antibody including a heavy chain variable region including heavy chain CDR1 set forth in SEQ ID NO: 13, heavy chain CDR2 set forth in SEQ ID NO: 14, and heavy chain CDR3 set forth in SEQ ID NO: 15, and a light chain variable region including light chain CDR1 set forth in SEQ ID NO: 16, light chain CDR2 set forth in SEQ ID NO: 17 and light chain CDR3 set forth in SEQ ID NO: 18; (a) an antibody including a heavy chain variable region including heavy chain CDR1 set forth in SEQ ID NO: 7, heavy chain CDR2 set forth in SEQ ID NO: 8, and heavy chain CDR3 set forth in SEQ ID NO: 9, and a light chain variable region including light chain CDR1 set forth in SEQ ID NO: 10, light chain CDR2 set forth in SEQ ID NO: 11 and light chain CDR3 set forth in SEQ ID NO: 12; and (b) an antibody including a heavy chain variable region including heavy chain CDR1 set forth in SEQ ID NO: 13, heavy chain CDR2 set forth in SEQ ID NO: 14, and heavy chain CDR3 set forth in SEQ ID NO: 15, and a light chain variable region including light chain CDR1 set forth in SEQ ID NO: 16, light chain CDR2 set forth in SEQ ID NO: 17 and light chain CDR3 set forth in SEQ ID NO: 18;
A spinal implant structure (100; 200; 400) having a folded position and an expansion position, comprising: a body (110; 210; 410), the body (110; 210; 410) being a hollow-cored cylinder when the spinal implant structure (100; 200; 400) is in the folded position, the body (110; 210; 410) comprising: a first part (111; 211; 411); a second part (112; 212), the second part (112; 212) not overlapping the first part (111; 211; 411); and at least one expansion arm (113; 213; 413), the expansion arm (113; 213; 413) having an end connecting with the first part (111; 211; 411) and another end being a free end; and at least one support arm (114; 214), the support arm (114; 214) having an end connecting with the expansion arm (113; 213; 413) and another end connecting with the second part (112; 212); wherein the support arm (114; 214) comprises a plurality of weakened sections so that, in response to a change in a distance between the first part (111; 211; 411) and the second part (112; 212), the support arm (114; 214) bends at the weakened sections and thus drives the expansion arm (113; 213; 413) to move, thereby increasing an included angle between the expansion arm (113; 213; 413) and the first part (111; 211; 411), expanding the spinal implant structure (100; 200; 400), and causing the spinal implant structure (100; 200; 400) to turn into the expansion position, and wherein the first part (111; 211; 411), the second part (112; 212), the expansion arm (113; 213; 413), and the support arm (114; 214) are formed integrally, characterized in that the first part (111; 211; 411) has a recess therein, the recess connecting to an outside of the body (110; 210; 410). a first part (111; 211; 411); a second part (112; 212), the second part (112; 212) not overlapping the first part (111; 211; 411); and at least one expansion arm (113; 213; 413), the expansion arm (113; 213; 413) having an end connecting with the first part (111; 211; 411) and another end being a free end; and at least one support arm (114; 214), the support arm (114; 214) having an end connecting with the expansion arm (113; 213; 413) and another end connecting with the second part (112; 212); wherein the support arm (114; 214) comprises a plurality of weakened sections so that, in response to a change in a distance between the first part (111; 211; 411) and the second part (112; 212), the support arm (114; 214) bends at the weakened sections and thus drives the expansion arm (113; 213; 413) to move, thereby increasing an included angle between the expansion arm (113; 213; 413) and the first part (111; 211; 411), expanding the spinal implant structure (100; 200; 400), and causing the spinal implant structure (100; 200; 400) to turn into the expansion position, and wherein the first part (111; 211; 411), the second part (112; 212), the expansion arm (113; 213; 413), and the support arm (114; 214) are formed integrally, characterized in that the first part (111; 211; 411) has a recess therein, the recess connecting to an outside of the body (110; 210; 410).
A wet wipe comprising: a substrate comprising cellulosic fibers; and a lotion comprising: between 96.0% and 99.5%, by weight of the lotion, of water; a pH buffering system; a surfactant; and a preservative system comprising: benzoic acid and/or a salt thereof, succinic acid and/or a salt thereof, and phytic acid and/or a salt thereof; wherein the lotion has a pH of 3.5 to 5. a substrate comprising cellulosic fibers; and a lotion comprising: between 96.0% and 99.5%, by weight of the lotion, of water; a pH buffering system; a surfactant; and a preservative system comprising: benzoic acid and/or a salt thereof, succinic acid and/or a salt thereof, and phytic acid and/or a salt thereof; wherein the lotion has a pH of 3.5 to 5. between 96.0% and 99.5%, by weight of the lotion, of water; a pH buffering system; a surfactant; and a preservative system comprising: benzoic acid and/or a salt thereof, succinic acid and/or a salt thereof, and phytic acid and/or a salt thereof; benzoic acid and/or a salt thereof, succinic acid and/or a salt thereof, and phytic acid and/or a salt thereof; wherein the lotion has a pH of 3.5 to 5.