mhurhangee/ep-ind-claims huggingface dataset:
A mechanical seal system configured to detect operating conditions and provide real-time health assessments to a user during operation, the mechanical seal system comprising: a rotating device including a stationary housing and a rotating shaft; a mechanical seal configured to provide a sliding seal interface between the stationary housing and the rotating shaft of the rotating device; a lubricating fluid conditioning unit configured introduce lubricating fluid into the sliding seal interface; a plurality of sensors configured to sense operating conditions of the mechanical seal system;; and a plurality of failure mode logic modules configured to monitor the sensed operating conditions and provide feedback by way of notifications to a user via a user interface regarding a likelihood of specific types of mechanical failure occurring in the mechanical seal system; wherein each of the plurality of failure mode logic modules can be activated or deactivated to suit individual customer needs, particular environmental conditions and/or specific applications of the mechanical seal system. a rotating device including a stationary housing and a rotating shaft; a mechanical seal configured to provide a sliding seal interface between the stationary housing and the rotating shaft of the rotating device; a lubricating fluid conditioning unit configured introduce lubricating fluid into the sliding seal interface; a plurality of sensors configured to sense operating conditions of the mechanical seal system;; and a plurality of failure mode logic modules configured to monitor the sensed operating conditions and provide feedback by way of notifications to a user via a user interface regarding a likelihood of specific types of mechanical failure occurring in the mechanical seal system; wherein each of the plurality of failure mode logic modules can be activated or deactivated to suit individual customer needs, particular environmental conditions and/or specific applications of the mechanical seal system.
An implantable medical device for treatment of a vascular disease in a diabetic patient, comprising: a device body; and three drug reservoir layers disposed over the device body, wherein each layer comprises an mTOR inhibitor and at least one of the three layers comprises at least 200 mg/cm 2 of an mTOR inhibitor; wherein the first drug reservoir layer, which is the outermost of the drug reservoir layers, releases at least 80% of its mTOR inhibitor over about 7 days post implantation of the device; the second drug reservoir layer, which is disposed beneath the first drug reservoir layer, releases at least 80% of its mTOR inhibitor over about 22 days beginning at about day 8 post implantation of the device; and the third drug reservoir layer, which is disposed beneath the second drug reservoir layer, releases at least 80% of its mTOR inhibitor over about 150 days beginning at about day 30 post implantation. a device body; and three drug reservoir layers disposed over the device body, wherein each layer comprises an mTOR inhibitor and at least one of the three layers comprises at least 200 mg/cm 2 of an mTOR inhibitor; wherein the first drug reservoir layer, which is the outermost of the drug reservoir layers, releases at least 80% of its mTOR inhibitor over about 7 days post implantation of the device; the second drug reservoir layer, which is disposed beneath the first drug reservoir layer, releases at least 80% of its mTOR inhibitor over about 22 days beginning at about day 8 post implantation of the device; and the third drug reservoir layer, which is disposed beneath the second drug reservoir layer, releases at least 80% of its mTOR inhibitor over about 150 days beginning at about day 30 post implantation.
A handle for operating a window or door and for operating a latching mechanism of said window/door and for being rotated about an axis of rotation, from a first position in which said latching mechanism of said window/door is locked, to a second position in which said latching mechanism of said window/door is unlocked and where said axis of rotation is approximately perpendicular to a surface main plane of said window/door, said handle having: a handle neck for being connected to an operating spindle for manipulating said latching mechanism of said window/door, said spindle having a longitudinal direction being approximately perpendicular to said surface main plane of said window/door, a grip connected to said handle neck for allowing a user to operate said handle, said handle neck having an upper handle neck portion extending in a first longitudinal direction of said handle neck, said first longitudinal direction defining a first angle in relation to said surface main plane, and a lower handle neck portion extending in a second longitudinal direction of said handle neck, said second longitudinal direction defining a second angle in relation to said surface main plane, said second angle being numerically larger than said first angle, and where said upper handle neck portion comprises a locking mechanism, said lower handle neck portion comprising a handle neck seat having a through-going opening extending in a direction towards said surface main plane, said handle neck seat further comprises a spindle seat, preferably a quadrangular spindle seat, for accommodating said operating spindle arranged in a direction substantially perpendicular to said surface main plane, said through-going opening is accommodating a locking pin for being activated by said locking mechanism between a position where said locking pin is projecting from said lower handle neck portion for engaging a handle escutcheon, and a retracted position where said locking pin is in a non-projecting position for being in a non-engaging position with said escutcheon, and wherein said first angle is numerically in the range between 40-80 degrees, more preferably in the range between 50-70 degrees, most preferably 60 degrees, and said second angle is numerically in the range between 60-90 degrees, more preferably in the range between 70-80 degrees, most preferably 75 degrees, such that said grip can be arranged at an increased distance from a window/door frame in order to allow a user to operate the handle without interfering with the window/door frame. a handle neck for being connected to an operating spindle for manipulating said latching mechanism of said window/door, said spindle having a longitudinal direction being approximately perpendicular to said surface main plane of said window/door, a grip connected to said handle neck for allowing a user to operate said handle, said handle neck having an upper handle neck portion extending in a first longitudinal direction of said handle neck, said first longitudinal direction defining a first angle in relation to said surface main plane, and a lower handle neck portion extending in a second longitudinal direction of said handle neck,
Method for encoding an analog input signal into time intervals by means of a time encoding machine, wherein the width of time intervals generated at an output of the time encoding machine represents values of the analog input signal, characterized in that during the generation of a time interval a sample of the input signal is held at the input of the time encoding machine by means of a sample-and-hold circuit, wherein the time interval represents an instantaneous value of the analog input signal sampled during the generation of a previous time interval, wherein the end of the time interval generated at the output of the time encoding machine triggers a control signal that causes a next sample of the analog input signal to be captured and held by the sample-and-hold circuit, the next sample representing a new instantaneous value of the analog input signal.
A method for injecting a reductant into an exhaust gas of a power system, the method comprising: calculating a baseline supply pressure of the reductant; calculating the higher supply pressure based on the baseline supply pressure, the higher supply pressure being higher than the baseline supply pressure; and calculating the lower supply pressure based on the baseline supply pressure, the lower supply pressure being lower than the baseline supply pressure, increasing a difference between the higher supply pressure and the baseline supply pressure when a space velocity decreases injecting the reductant at a commanded flow rate; and simultaneously oscillating a supply pressure of the reductant between a higher supply pressure and a lower supply pressure. calculating a baseline supply pressure of the reductant; calculating the higher supply pressure based on the baseline supply pressure, the higher supply pressure being higher than the baseline supply pressure; and calculating the lower supply pressure based on the baseline supply pressure, the lower supply pressure being lower than the baseline supply pressure, increasing a difference between the higher supply pressure and the baseline supply pressure when a space velocity decreases injecting the reductant at a commanded flow rate; and simultaneously oscillating a supply pressure of the reductant between a higher supply pressure and a lower supply pressure.
Method for controlling a hydrocarbon steam reforming process carried out in a combustion chamber comprising burners and tubes, said tubes being filled with catalysts and being capable of being passed through by a mixture of hydrocarbons and steam, the burners being positioned so as to transfer the heat from their combustion to the mixture of hydrocarbons and steam through the wall of the tubes, in which the wall temperature T of each tube is measured, preferably in the downstream part of the tube, characterized in that - the steps of measuring the wall temperature T of each tube are carried out at least once a month, - after having measured the temperature T of each tube, the tubes that are said to be "very hot" are identified, that is to say those for which the temperature measured T is greater than or equal to MOT-10°C, and if, for at least one tube, the temperature measured T is greater than or equal to MOT-10°C, then the temperature of this at least one identified tube is measured more frequently and preferably every day, and - when, for at least one tube, the temperature measured T is greater than or equal to the MOT, at least one operating parameter of the reforming process is modified so as to lower the temperature measured T of this tube to a value below the MOT, where the MOT is the maximum operating temperature of the tubes, equal to DTT-15°C, DTT being the design temperature of the tube. - the steps of measuring the wall temperature T of each tube are carried out at least once a month, - after having measured the temperature T of each tube, the tubes that are said to be "very hot" are identified, that is to say those for which the temperature measured T is greater than or equal to MOT-10°C, and if, for at least one tube, the temperature measured T is greater than or equal to MOT-10°C, then the temperature of this at least one identified tube is measured more frequently and preferably every day, and - when, for at least one tube, the temperature measured T is greater than or equal to the MOT, at least one operating parameter of the reforming process is modified so as to lower the temperature measured T of this tube to a value below the MOT, where the MOT is the maximum operating temperature of the tubes, equal to DTT-15°C, DTT being the design temperature of the tube.
Tuned mass damper, which can be variably adapted to an interference frequency and used in wind turbines, buildings, and turbine machinery having comparable vibration characteristics, comprising a chassis equipped with wheels or rollers (2.1), a mass-damper main mass, and a running device, - the mass-damper main mass being attached to the chassis or being an integral part of the chassis, - the running device for the chassis being substantially circular or concavely curved such that the chassis or the mass-damper main mass can be moved and displaced on this running device from a central position or apex position in accordance with the vibrational forces which trigger the movements acting in the direction of the running device, - the chassis or the mass-damper main mass having at least one disk-shaped, rotationally symmetrical driven rotary flywheel mass, which has an axis of rotation perpendicular to the plane of the circular path of the running device, and moving together with the mass-damper main mass, and - the at least one rotary flywheel mass comprising at least one rotating mass disk and having a rotational direction that substantially corresponds to the relevant direction of the moved chassis along the running device, characterized in that the disk-shaped rotary flywheel mass is driven by a belt drive device without active involvement of the wheels or rollers (2.1) of the chassis, the belt drive device being attached underneath the running device and the center of gravity of the rotary flywheel mass which is connected to the belt drive device being below the running device. - the mass-damper main mass being attached to the chassis or being an integral part of the chassis, - the running device for the chassis being substantially circular or concavely curved such that the chassis or the mass-damper main mass can be moved and displaced on this running device from a central position or apex position in accordance with the vibrational forces which trigger the movements acting in the direction of the running device, - the chassis or the mass-damper main mass having at least one disk-shaped, rotationally symmetrical driven rotary flywheel mass, which has an axis of rotation perpendicular to the plane of the circular path of the running device, and moving together with the mass-damper main mass, and - the at least one rotary flywheel mass comprising at least one rotating mass disk and having a rotational direction that substantially corresponds to the relevant direction of the moved chassis along the running device, characterized in that the disk-shaped rotary flywheel mass is driven by a belt drive device without active involvement of the wheels or rollers (2.1) of the chassis, the belt drive device being attached underneath the running device and the center of gravity of the rotary flywheel mass which is connected to the belt drive device being below the running device.
A clamping apparatus comprising: a shaft; a base body that is adjustable to different positions along the shaft; a clamping leg arranged to pivot into a first clamping position and a second clamping position; and an arm that includes, and extends between, a first end portion connected to the base body and a second end portion connected to the clamping leg, characterized by a handle movable between a first position and a second position, wherein: when the handle is in the first position, the handle is configured to lock a position of the base body relative to the shaft and provide a clamping force to the clamping leg; when the handle is in the second position, the base body is freely slidable along the shaft; the clamping apparatus being arranged for the clamping force to be released when the handle is shifted from the first position into the second position, wherein the handle is a part of an over-center toggle mechanism by which the handle is at an over-center lock point when the handle is in the first position, and wherein the base body includes at least one abutment surface configured to prevent the handle from rotating further than a predefined position beyond its over-center lock point. a shaft; a base body that is adjustable to different positions along the shaft; a clamping leg arranged to pivot into a first clamping position and a second clamping position; and an arm that includes, and extends between, a first end portion connected to the base body and a second end portion connected to the clamping leg, characterized by a handle movable between a first position and a second position, wherein: when the handle is in the first position, the handle is configured to lock a position of the base body relative to the shaft and provide a clamping force to the clamping leg; when the handle is in the second position, the base body is freely slidable along the shaft; when the handle is in the first position, the handle is configured to lock a position of the base body relative to the shaft and provide a clamping force to the clamping leg; when the handle is in the second position, the base body is freely slidable along the shaft; the clamping apparatus being arranged for the clamping force to be released when the handle is shifted from the first position into the second position, wherein the handle is a part of an over-center toggle mechanism by which the handle is at an over-center lock point when the handle is in the first position, and wherein the base body includes at least one abutment surface configured to prevent the handle from rotating further than a predefined position beyond its over-center lock point.
A copolymer of (a)5 to 40% by weight of isoprenol, (b)5 to 93% by weight of at least one monoethylenically unsaturated C 3 to C 8 monocarboxylic acid, an anhydride or salt of same, (c)2 to 90% by weight of one or more sulfonic acid group-comprising monomers. (a)5 to 40% by weight of isoprenol, (b)5 to 93% by weight of at least one monoethylenically unsaturated C 3 to C 8 monocarboxylic acid, an anhydride or salt of same, (c)2 to 90% by weight of one or more sulfonic acid group-comprising monomers.
A 3D printing device having at least one printing nozzle for a layer-by-layer application of a printing material (50, 51) provided for the production of a component to be printed along a direction of application, wherein the 3D printing device has a temperature control device, characterized in that the temperature control device comprises a plurality of temperature control elements (41a-41e; 41a-42e; 43a-43e) provided for cooling already applied printing material (50, 51) and a plurality of temperature control elements (41a-41e; 41a-42e; 43a-43e) provided for warming already applied printing material (50, 51), wherein the temperature control device comprises first and second supports (41, 42, 43) which each extend at least partially around the printing nozzle and are arranged concentrically, and wherein the temperature control elements (41a-41e; 41a-42e; 43a-43e) are provided on sections of the first and second supports (41, 42, 43) of the temperature control device.
Mobile equipment having a function shooting a picture of an object, comprising a camera unit and a light source unit (12, 22) emitting white light to serve as an auxiliary light source for shooting a picture, further comprising: an input device including an illumination key and a shutter key; and a controller controlling a current supplied to a light emitting diode portion (15, 16, 17), wherein: said light source unit (12, 22) including said light emitting diode portion (15, 16, 17) to emit white light; and when said illumination key is operated said controller operates to supply said light emitting diode portion (15, 16, 17) with a current having a constant level to continuously emit light for illumination and with said light continuously emitted when said shutter key is operated said controller increases in level a current supplied to said light emitting diode portion (15, 16, 17) to emit light for illumination. an input device including an illumination key and a shutter key; and a controller controlling a current supplied to a light emitting diode portion (15, 16, 17), wherein: said light source unit (12, 22) including said light emitting diode portion (15, 16, 17) to emit white light; and when said illumination key is operated said controller operates to supply said light emitting diode portion (15, 16, 17) with a current having a constant level to continuously emit light for illumination and with said light continuously emitted when said shutter key is operated said controller increases in level a current supplied to said light emitting diode portion (15, 16, 17) to emit light for illumination. said light source unit (12, 22) including said light emitting diode portion (15, 16, 17) to emit white light; and when said illumination key is operated said controller operates to supply said light emitting diode portion (15, 16, 17) with a current having a constant level to continuously emit light for illumination and with said light continuously emitted when said shutter key is operated said controller increases in level a current supplied to said light emitting diode portion (15, 16, 17) to emit light for illumination.
A shaped abrasive particle comprising a body having a first major surface, a second major surface, and a side surface joined to the first major surface and the second major surface, and wherein the body comprises a first exterior corner, a second exterior corner, and a third exterior corner, wherein the side surface comprises a discrete side surface portion between the first exterior corner and the second exterior corner, and wherein at least one of the first exterior corner, the second exterior corner, and the third exterior corner comprises a discrete stepped depression.
A secondary battery electrode comprising: a collector positioned between an external wire and an electrode active material to transfer electrons; and an electrode mixture layer coated on the collector, wherein the electrode mixture layer includes a cross-linked polymer, an electrode active material, a photoinitiator, and a binder which is any one of polyvinylidene fluoride, polyvinyl alcohol, starch, hydroxypropylcellulose, regenerated cellulose, polyvinylpyrrolidone, tetrafluoroethylene, polyethylene, polypropylene, ethylene-propylene-diene terpolymer (EPDM), sulfonated EPDM, styrene butylene rubber, fluorine rubber, the cross-linked polymer is formed by a cross-linked bond between a first polymerization unit and a second polymerization unit to have an interpenetrating polymer network by ultraviolet treatment, wherein the first polymerization unit is an acryl urethane-based oligomer or a polymer, and the second polymerization unit is a siloxane-based vinyl ether urethane. a collector positioned between an external wire and an electrode active material to transfer electrons; and an electrode mixture layer coated on the collector, wherein the electrode mixture layer includes a cross-linked polymer, an electrode active material, a photoinitiator, and a binder which is any one of polyvinylidene fluoride, polyvinyl alcohol, starch, hydroxypropylcellulose, regenerated cellulose, polyvinylpyrrolidone, tetrafluoroethylene, polyethylene, polypropylene, ethylene-propylene-diene terpolymer (EPDM), sulfonated EPDM, styrene butylene rubber, fluorine rubber, the cross-linked polymer is formed by a cross-linked bond between a first polymerization unit and a second polymerization unit to have an interpenetrating polymer network by ultraviolet treatment, wherein the first polymerization unit is an acryl urethane-based oligomer or a polymer, and the second polymerization unit is a siloxane-based vinyl ether urethane.
A human hematopoietic cell, expressing a first isoform of a surface protein, wherein said first isoform of said surface protein is functionally indistinguishable, but immunologically distinguishable from a second isoform of said surface protein, for use in a medical treatment of a human patient having cells expressing said second isoform of said surface protein, wherein said cell is administered prior to, concomitant with or after specific ablation of cells expressing said second isoform of said surface protein wherein said ablation of cells expressing said second isoform of said surface protein is performed by administration to said patient of an antibody, wherein said antibody is specifically reactive to said second isoform but not to said first isoform of said cell surface protein and wherein said treatment comprises changing a sequence encoding said surface protein gene in the patient's native genomic DNA by gene editing so as to obtain a first isoform having an insertion, deletion and/or substitution of 1, 2, 3, 4 or 5 amino acids in the amino acid sequence of compared to said second isoform of said surface protein.