mhurhangee/ep-ind-claims huggingface dataset:
Sensor head for a corrosion test sensor, which at its front end is delimited by a cap and at its rear end by an end plate and comprises at least two electrodes (7, 11) electrically insulated from each other by insulating parts (8, 10), wherein in the sensor head between the cap and the end plate a draw unit is arranged, which applies a tensile force to the sensor head in the longitudinal direction thus pushing the electrodes (7,11) and the insulating parts (8, 10) against each other, characterised in that the end plate is formed by a disc in which slots (30, 31, 32) are provided, extending radially in the transverse direction of the disc.
A rotatable endodontic file for cleaning/shaping a tooth root canal, comprising: an elongated shaft having a proximal end portion, a distal end and a tapered working portion having a rotational axis, the working portion extending from said proximal portion to said distal end; the external surface of said shaft working portion having a plurality of at least two spirals, a plurality of parallelogram-shaped cross sections (A-A to O-O) along the working portion, each parallelogram-shaped cross section (A-A to O-O) having an acute angle and an axis of rotation that is asymmetric such that the center of mass is not located at the axis of rotation, wherein an acute angle of a first parallelogram-shaped cross section (A-A) is the same or different than an acute angle of a second parallelogram-shaped cross section (B-B) of the working portion, wherein the endodontic file is a constant tapered file.
Covering device, in particular a terrace roof, comprising: a longitudinal girder profile for mounting a rafter mount and having a bearing profile portion; a rafter mount for supporting a rafter on the longitudinal girder profile, the rafter mount having a enclosing portion corresponding to the bearing profile portion and being configured for form-fit mounting on said bearing profile portion, wherein the longitudinal girder profile has an introduction portion locally restricted longitudinally at which the bearing profile portion is recessed such that said introduction portion can be introduced into the enclosing portion of the rafter mount for assembly, wherein the enclosing portion is configured so as to be longitudinally displaceable on the bearing profile portion and a form fit between the enclosing portion and the bearing profile portion can be produced by means of longitudinally displacement, characterised in that a latching means is provided on the enclosing portion of the rafter mount and a counter-latching means arranged offset longitudinally relative to the introduction portion and acting longitudinally is provided on the bearing profile portion of the longitudinal girder profile, which are configured to be engageable by the longitudinal displacement of the enclosing portion on the bearing profile portion. a longitudinal girder profile for mounting a rafter mount and having a bearing profile portion; a rafter mount for supporting a rafter on the longitudinal girder profile, the rafter mount having a enclosing portion corresponding to the bearing profile portion and being configured for form-fit mounting on said bearing profile portion, wherein the longitudinal girder profile has an introduction portion locally restricted longitudinally at which the bearing profile portion is recessed such that said introduction portion can be introduced into the enclosing portion of the rafter mount for assembly, wherein the enclosing portion is configured so as to be longitudinally displaceable on the bearing profile portion and a form fit between the enclosing portion and the bearing profile portion can be produced by means of longitudinally displacement, characterised in that a latching means is provided on the enclosing portion of the rafter mount and a counter-latching means arranged offset longitudinally relative to the introduction portion and acting longitudinally is provided on the bearing profile portion of the longitudinal girder profile, which are configured to be engageable by the longitudinal displacement of the enclosing portion on the bearing profile portion.
A skin pigmentation treatment system comprising: a cooling applicator for contacting a skin of a patient; a cooling arrangement thermally coupled with the cooling applicator; a controller operably coupled with the cooling arrangement, the controller configured to control the cooling arrangement to provide a cooling treatment cycle, the cooling treatment cycle including: pre-cooling of the cooling applicator to a pre-treatment temperature of -10°C to -20°C prior to contact with the skin of the patient; receiving a signal that the cooling applicator is placed against a target skin tissue of the patient; cooling of the cooling applicator toward the pre-treatment temperature for a first duration of time to pre-condition the skin to freeze; and after the first duration of time and while the cooling applicator is held against the target skin tissue, adjustment of the temperature of the cooling applicator toward a treatment temperature that is higher than the pre-treatment temperature and below 0°C for a second duration of time that is longer than the first duration of time to freeze the target skin tissue. a cooling applicator for contacting a skin of a patient; a cooling arrangement thermally coupled with the cooling applicator; a controller operably coupled with the cooling arrangement, the controller configured to control the cooling arrangement to provide a cooling treatment cycle, the cooling treatment cycle including: pre-cooling of the cooling applicator to a pre-treatment temperature of -10°C to -20°C prior to contact with the skin of the patient; receiving a signal that the cooling applicator is placed against a target skin tissue of the patient; cooling of the cooling applicator toward the pre-treatment temperature for a first duration of time to pre-condition the skin to freeze; and after the first duration of time and while the cooling applicator is held against the target skin tissue, adjustment of the temperature of the cooling applicator toward a treatment temperature that is higher than the pre-treatment temperature and below 0°C for a second duration of time that is longer than the first duration of time to freeze the target skin tissue. pre-cooling of the cooling applicator to a pre-treatment temperature of -10°C to -20°C prior to contact with the skin of the patient; receiving a signal that the cooling applicator is placed against a target skin tissue of the patient; cooling of the cooling applicator toward the pre-treatment temperature for a first duration of time to pre-condition the skin to freeze; and after the first duration of time and while the cooling applicator is held against the target skin tissue, adjustment of the temperature of the cooling applicator toward a treatment temperature that is higher than the pre-treatment temperature and below 0°C for a second duration of time that is longer than the first duration of time to freeze the target skin tissue.
A gas phase process for polymerizing olefin(s) to produce a polyethylene composition, having a long chain branching index of 0.5 ≤ g'avg ≤ 0.9; a Melt Flow Rate of > (49.011 x MI (-0.4304)), where MI is Melt Index; and a weight average molecular weight to number average molecular weight Mw/Mn ≤ 4.6 comprising contacting the olefin(s), under polymerization conditions, with a catalyst system comprising an achiral cyclic bridged metallocene catalyst compound and an activator; wherein the achiral cyclic bridged metallocene catalyst compound is cyclotetramethylenesilyl(tetramethyl cyclopentadienyl)(cyclopentadienyl) zirconium dimethyl; wherein the polymer product comprises as monomers ethylene and butene; and wherein the activator comprises alumoxane, a modified alumoxane, or a mixture thereof; wherein long chain branching index is determined as described in the description; wherein MFR is determined according to ASTM D 1238; and wherein Melt Index is determined is determined according to ASTM D 1238-E. a long chain branching index of 0.5 ≤ g'avg ≤ 0.9; a Melt Flow Rate of > (49.011 x MI (-0.4304)), where MI is Melt Index; and a weight average molecular weight to number average molecular weight Mw/Mn ≤ 4.6 comprising contacting the olefin(s), under polymerization conditions, with a catalyst system comprising an achiral cyclic bridged metallocene catalyst compound and an activator; wherein the achiral cyclic bridged metallocene catalyst compound is cyclotetramethylenesilyl(tetramethyl cyclopentadienyl)(cyclopentadienyl) zirconium dimethyl; wherein the polymer product comprises as monomers ethylene and butene; and wherein the activator comprises alumoxane, a modified alumoxane, or a mixture thereof; wherein long chain branching index is determined as described in the description; wherein MFR is determined according to ASTM D 1238; and wherein Melt Index is determined is determined according to ASTM D 1238-E.
Process for producing cement clinker, in which cement raw meal is heated in at least one cyclone preheater, the heated raw meal is deacidified in a calciner equipped with a burner and burnt in a clinker furnace to give clinker and the clinker is subsequently cooled in a clinker cooler, where energy required for the transformation of material is supplied by combustion of a primary fuel with a primary and optionally and a secondary oxidant at a burner in the clinker furnace and by combustion of a secondary fuel with a tertiary oxidant in the calciner, where oxygen having a purity of more than 90% by volume is introduced in addition to the tertiary oxidant into the calciner in the region of the calciner burner, characterized in that the amount of the oxygen introduced in addition to tertiary air into the calciner is from 0.5% to 2% of the amount of the calciner exhaust gas produced by combustion of the secondary fuel with the tertiary oxidant.
A conjugate comprising: (a) (i) a disrupted adenovirus deficient in at least one replication-essential gene function of the E1 region and at least one gene function of the non-essential E3 region, and having an adenovirus hexon protein, wherein the adenovirus is disrupted by a treatment with sodium dodecyl sulfate and heat at a temperature from 50 °C to 70 °C, or (ii) an isolated or purified adenovirus hexon protein; and (b) an antigen conjugated to the hexon protein, wherein the antigen is • 6-(2R,3S)-3-(benzoyloxy)-8-methyl-8-azabicyclo [3.2.1]octane-2-carbonyloxy-hexanoic acid, • 6-((2R,3S)-3-(benzoyloxy)-8-methyl-8-azabicyclo [3.2.1] octane-2-carboxamido)hexanoic acid), • nicotine, • N-succinyl-6-amino-(+/-)-nicotine, 6-(sigma-aminocapramido)-(+/-)-nicotine, • O-succinyl-3'-hydroxymethyl-nicotine, or • 3'-(hydroxymethyl)-nicotine hemisuccinate. (a) (i) a disrupted adenovirus deficient in at least one replication-essential gene function of the E1 region and at least one gene function of the non-essential E3 region, and having an adenovirus hexon protein, wherein the adenovirus is disrupted by a treatment with sodium dodecyl sulfate and heat at a temperature from 50 °C to 70 °C, or (ii) an isolated or purified adenovirus hexon protein; and (i) a disrupted adenovirus deficient in at least one replication-essential gene function of the E1 region and at least one gene function of the non-essential E3 region, and having an adenovirus hexon protein, wherein the adenovirus is disrupted by a treatment with sodium dodecyl sulfate and heat at a temperature from 50 °C to 70 °C, or (ii) an isolated or purified adenovirus hexon protein; and (b) an antigen conjugated to the hexon protein, wherein the antigen is • 6-(2R,3S)-3-(benzoyloxy)-8-methyl-8-azabicyclo [3.2.1]octane-2-carbonyloxy-hexanoic acid, • 6-((2R,3S)-3-(benzoyloxy)-8-methyl-8-azabicyclo [3.2.1] octane-2-carboxamido)hexanoic acid), • nicotine, • N-succinyl-6-amino-(+/-)-nicotine, 6-(sigma-aminocapramido)-(+/-)-nicotine, • O-succinyl-3'-hydroxymethyl-nicotine, or • 3'-(hydroxymethyl)-nicotine hemisuccinate. • 6-(2R,3S)-3-(benzoyloxy)-8-methyl-8-azabicyclo [3.2.1]octane-2-carbonyloxy-hexanoic acid, • 6-((2R,3S)-3-(benzoyloxy)-8-methyl-8-azabicyclo [3.2.1] octane-2-carboxamido)hexanoic acid), • nicotine, • N-succinyl-6-amino-(+/-)-nicotine, 6-(sigma-aminocapramido)-(+/-)-nicotine, • O-succinyl-3'-hydroxymethyl-nicotine, or • 3'-(hydroxymethyl)-nicotine hemisuccinate.
An apparatus comprising: a cover including a plurality of waveguides; a pressure plate; a printed circuit board comprising a plurality of radiating elements of a phased array antenna; a first conductive sheet defining a first plurality of openings and including a first plurality of bumps, wherein one or more openings of the first plurality of openings is surrounded by a set of bumps of the first plurality of bumps, and a second conductive sheet defining a second plurality of openings and including a second plurality of bumps, wherein one or more openings of the second plurality of openings is surrounded by a set of bumps of the second plurality of bumps, wherein the second conductive sheet is positioned between the cover and the pressure plate, wherein the PCB is positioned between the first conductive sheet and the second conductive sheet; wherein the PCB, the first conductive sheet and the second conductive sheet are positioned between the cover and the pressure plate, and wherein, during use of the phased array antenna, the first plurality of bumps and the second plurality of bumps function as ground contacts of the phased array antenna. a cover including a plurality of waveguides; a pressure plate; a printed circuit board comprising a plurality of radiating elements of a phased array antenna; a first conductive sheet defining a first plurality of openings and including a first plurality of bumps, wherein one or more openings of the first plurality of openings is surrounded by a set of bumps of the first plurality of bumps, and a second conductive sheet defining a second plurality of openings and including a second plurality of bumps, wherein one or more openings of the second plurality of openings is surrounded by a set of bumps of the second plurality of bumps, wherein the second conductive sheet is positioned between the cover and the pressure plate, wherein the PCB is positioned between the first conductive sheet and the second conductive sheet; wherein the PCB, the first conductive sheet and the second conductive sheet are positioned between the cover and the pressure plate, and wherein, during use of the phased array antenna, the first plurality of bumps and the second plurality of bumps function as ground contacts of the phased array antenna.
A chimeric, humanized or human antibody or antigen-binding fragment thereof that competes for binding to an epithelial glycoprotein-1 (EGP-1) with a murine RS7 antibody comprising the light chain complementarity determining region sequences CDR1 KASQDVSIAVA; CDR2 SASYRYT; and CDR3 QQHYITPLT; and the heavy chain CDR sequences CDR1 NYGMN; CDR2 WINTYTGEPTYTDDFKG and CDR3 GGFGSSYWYFDV, wherein the antibody or antigen-binding fragment thereof is different from a humanized RS7 antibody, or fragment thereof, that recognizes epithelial glycoprotein-1, and the CDRs of the heavy chain variable region of the antibody, or the fragment thereof, comprises CDR1 comprising an amino acid sequence of NYGMN; CDR2 comprising an amino acid sequence of WINTYTGEPTYTDDFKG and CDR3 comprising an amino acid sequence of GGFGSSYWYFDV, and wherein the CDRs of the light chain variable region of the antibody, or the fragment thereof, comprises CDR1 comprising an amino acid sequence of KASQDVSIAVA; CDR2 comprising an amino acid sequence of SASYRYT; and CDR3 comprising an amino acid sequence of QQHYITPLT.
Method for producing a heat-sealable paper in which a heat-sealing coating, based on a heat-sealable polymer, is applied to a paper web and the paper web is subsequently rolled up onto the application of the heat-sealing coating, wherein the heat-sealing coating contains wax of a first type of wax in a dispersed phase, characterized in that the melting point of the first type of wax is above the maximum drying temperature of the paper web to be wound up and between 105 and 164 degrees Celsius, and the wax contains a second type of wax whose melting point is chosen between the maximum drying temperature of the paper web to be wound up and the melting point of the first type of wax. the heat-sealing coating contains wax of a first type of wax in a dispersed phase, characterized in that the melting point of the first type of wax is above the maximum drying temperature of the paper web to be wound up and between 105 and 164 degrees Celsius, and the wax contains a second type of wax whose melting point is chosen between the maximum drying temperature of the paper web to be wound up and the melting point of the first type of wax.
An automated large outside diameter preform tipping process for yielding a tipped glass preform which includes a transparent core surrounded by a transparent cladding material with a lower index of refraction, and having predetermined tip geometries and shapes, reduced glass waste, and minimal clad-to-core waveguide distortion in the fiber drawn from the preform, the process comprising: creating a glass preform (20; 100) in an apparatus having a heating zone, wherein one end of the preform (20; 100) is held by a first holding unit, and the opposite end of the preform is held by a second holding unit; positioning the preform (20; 100) relative to the heating zone in a tipping position by moving the first and the second holding units (40; 44) simultaneously in a synchronized manner; applying heat to the heating zone until the preform (20; 100) area softens; moving at least the second holding unit away from the heating zone along a predetermined non-linear, exponential-like velocity profile; once the velocity of the second holding unit achieves its maximum value, which creates a thinned glass strand in the area of the preform (20; 100), at least reducing the temperature of the heating zone; and cutting the thinned glass strand to yield a tipped glass preform (20; 100). creating a glass preform (20; 100) in an apparatus having a heating zone, wherein one end of the preform (20; 100) is held by a first holding unit, and the opposite end of the preform is held by a second holding unit; positioning the preform (20; 100) relative to the heating zone in a tipping position by moving the first and the second holding units (40; 44) simultaneously in a synchronized manner; applying heat to the heating zone until the preform (20; 100) area softens; moving at least the second holding unit away from the heating zone along a predetermined non-linear, exponential-like velocity profile; once the velocity of the second holding unit achieves its maximum value, which creates a thinned glass strand in the area of the preform (20; 100), at least reducing the temperature of the heating zone; and cutting the thinned glass strand to yield a tipped glass preform (20; 100).
A training instrument, comprising: a main body comprising first and second grip areas spaced apart from one another by at least a curving portion; a strain gauge remote from the first and second grip areas; and a first connector; and an opening portion shaped and arranged such that it is capable of having a socket portion removably provided thereto, the socket portion comprising a battery, a processor, a wireless communication circuit configured to wirelessly transmit a detected value of the strain gauge, and a second connector configured to physically engage with the first connector when the socket portion is provided to the opening portion for connecting the strain gauge to the processor; wherein the strain gauge is configured to output to the socket portion data indicative of a deformation of the training instrument caused by a force applied to the first and second grip areas by a user, when the socket portion is provided to the opening portion. a main body comprising first and second grip areas spaced apart from one another by at least a curving portion; a strain gauge remote from the first and second grip areas; and a first connector; and an opening portion shaped and arranged such that it is capable of having a socket portion removably provided thereto, the socket portion comprising a battery, a processor, a wireless communication circuit configured to wirelessly transmit a detected value of the strain gauge, and a second connector configured to physically engage with the first connector when the socket portion is provided to the opening portion for connecting the strain gauge to the processor; wherein the strain gauge is configured to output to the socket portion data indicative of a deformation of the training instrument caused by a force applied to the first and second grip areas by a user, when the socket portion is provided to the opening portion.
A method of predicting a radiotherapy success in a method of treating a lung cancer of a patient, wherein the lung cancer is lung squamous cell carcinoma, comprising determining a change in the nucleotide sequence of MLH1 in a sample obtained from the patient.
An apparatus for classifying pain of an object being estimated based on a brainwave of the object being estimated, comprising: a stimulation unit (1000, 5900) for stimulating the object being estimated with a plurality of levels of stimulation intensities; a brainwave data obtaining unit (2000, 5200) for obtaining brainwave data or analysis data thereof of the object being estimated corresponding to the stimulation intensities, wherein the brainwave data or analysis data is an amplitude of a brainwave; a pain classifier generation unit for plotting, and fitting to a pain function, the stimulation intensities or a subjective pain sensation level corresponding to the stimulation intensities and the brainwave data or analysis data thereof to obtain a pain function specific to the object being estimated, and identifying a pain classifier for separating a pain level to at least two based on the specific pain function, wherein the pain function is a sigmoid function and the classification of the brainwave data or analysis data thereof based on the pain classifier is characterized by using a mean value of the amplitude of the brainwave during a predetermined period of time; and a pain classification unit (4000, 5600) for receiving an amplitude of a brainwave by using a brainwave recording sensor (2500, 5220) and a plurality of electrodes configured to be placed on the subject's scalp and for classifying the amplitude of the brainwave to a pain level of the object being estimated based on the pain classifier. a stimulation unit (1000, 5900) for stimulating the object being estimated with a plurality of levels of stimulation intensities; a brainwave data obtaining unit (2000, 5200) for obtaining brainwave data or analysis data thereof of the object being estimated corresponding to the stimulation intensities, wherein the brainwave data or analysis data is an amplitude of a brainwave; a pain classifier generation unit for plotting, and fitting to a pain function, the stimulation intensities or a subjective pain sensation level corresponding to the stimulation intensities and the brainwave data or analysis data thereof to obtain a pain function specific to the object being estimated, and identifying a pain classifier for separating a pain level to at least two based on the specific pain function, wherein the pain function is a sigmoid function and the classification of the brainwave data or analysis data thereof based on the pain classifier is characterized by using a mean value of the amplitude of the brainwave during a predetermined period of time; and a pain classification unit (4000, 5600) for receiving an amplitude of a brainwave by using a brainwave recording sensor (2500, 5220) and a plurality of electrodes configured to be placed on the subject's scalp and for classifying the amplitude of the brainwave to a pain level of the object being estimated based on the pain classifier.