mhurhangee/ep-ind-claims huggingface dataset:
An implantable pacemaker, comprising: a sensing module configured to sense cardiac electrical signals received by a pair of electrodes coupled to the pacemaker, a pulse generator configured to generate and deliver pacing pulses to a heart chamber of a patient via the pair of electrodes, and a control module coupled to the sensing module and the pulse generator and configured to: start a pacing escape interval to control a time that a pacing pulse is delivered by the pulse generator; and characterized in that the control module is further configured to detect a sensed cardiac electrical signal as a crosstalk event, the crosstalk event being an electrical pulse delivered to the patient by a different medical device than the implantable pacemaker, and withhold restarting the pacing escape interval in response to sensing the cardiac electrical signal based on detecting the sensed cardiac electrical signal as the crosstalk event. a sensing module configured to sense cardiac electrical signals received by a pair of electrodes coupled to the pacemaker, a pulse generator configured to generate and deliver pacing pulses to a heart chamber of a patient via the pair of electrodes, and a control module coupled to the sensing module and the pulse generator and configured to: start a pacing escape interval to control a time that a pacing pulse is delivered by the pulse generator; and characterized in that the control module is further configured to detect a sensed cardiac electrical signal as a crosstalk event, the crosstalk event being an electrical pulse delivered to the patient by a different medical device than the implantable pacemaker, and withhold restarting the pacing escape interval in response to sensing the cardiac electrical signal based on detecting the sensed cardiac electrical signal as the crosstalk event. start a pacing escape interval to control a time that a pacing pulse is delivered by the pulse generator; and characterized in that the control module is further configured to detect a sensed cardiac electrical signal as a crosstalk event, the crosstalk event being an electrical pulse delivered to the patient by a different medical device than the implantable pacemaker, and withhold restarting the pacing escape interval in response to sensing the cardiac electrical signal based on detecting the sensed cardiac electrical signal as the crosstalk event.
An aluminizing process for producing surface protective coating of body centered cubic nickel aluminide (NiAl) of controlled thickness of 80 μm with tolerance of 30 μm on nickel-base alloy surfaces with minimum 40 weight % nickel content comprising: activating the surfaces to be coated by grit blasting involving alumina grit with 30-120 mesh size at an air pressure of 5.5+/-0.5 kg/cm 2 preferably following dimensional check and degreasing; thermal spraying of the required surfaces with commercial pure aluminium to desired specific thickness in the range of 100 to 200 μm wherein thermal spray parameters comprise (i) aluminum wire diameter in the range of 3.0 to 3.2 mm at a wire Feed Rate in the range of 2.0-2.5mm/sec (ii) pneumatic pressure in the range of 5.5+/-0.5 kg/cm 2 (iii) oxygen pressure in the range of 2.5+/-0.3 kg/cm 2 and acetylene pressure in the range of 1.0+/-0.2 kg/cm 2 and (iv) maintaining a torch work distance of 200-300 mm; subjecting the aluminium thus sprayed onto the nickel-base alloy substrate to diffusion heat treatment in vacuum atmosphere at a temperature in the range of 950°C-1100°C for a duration of 1.0 to 1.5 hours such that the aluminium sprayed reacts with the nickel-base alloy substrate to form the desired nickel aluminide coating of said controlled thickness on said nickel-base alloy substrate; and subjecting the coated surface to surface cleaning. activating the surfaces to be coated by grit blasting involving alumina grit with 30-120 mesh size at an air pressure of 5.5+/-0.5 kg/cm 2 preferably following dimensional check and degreasing; thermal spraying of the required surfaces with commercial pure aluminium to desired specific thickness in the range of 100 to 200 μm wherein thermal spray parameters comprise (i) aluminum wire diameter in the range of 3.0 to 3.2 mm at a wire Feed Rate in the range of 2.0-2.5mm/sec (ii) pneumatic pressure in the range of 5.5+/-0.5 kg/cm 2 (iii) oxygen pressure in the range of 2.5+/-0.3 kg/cm 2 and acetylene pressure in the range of 1.0+/-0.2 kg/cm 2 and (iv) maintaining a torch work distance of 200-300 mm; subjecting the aluminium thus sprayed onto the nickel-base alloy substrate to diffusion heat treatment in vacuum atmosphere at a temperature in the range of 950°C-1100°C for a duration of 1.0 to 1.5 hours such that the aluminium sprayed reacts with the nickel-base alloy substrate to form the desired nickel aluminide coating of said controlled thickness on said nickel-base alloy substrate; and subjecting the coated surface to surface cleaning.
A radial slot antenna (1; 60) comprising a radial waveguide including an upper plate, having a centroid and an edge region and provided with a plurality of radiating apertures, formed as slots in the upper plate, which develop according to an ideal annular pattern around the centroid, wherein the radiating apertures are arranged in such a way as to form at least one first radiating region and one second radiating region which are distinct and radially separated by a dwell region without radiating apertures, and wherein, in the first and second radiating regions (31a, 31b), radially adjacent radiating apertures are separated from one another by a respective mutual radial distance, the dwell region having a radial width (δ) greater than the mutual radial distances of the radiating apertures in the first and second radiating regions (31a, 31b), said slot antenna (1; 60) further comprising a signal feeder operable for supplying an electromagnetic field (Ψ 0, Ψ 1) so as to assume, in the first and second radiating regions, opposite phases, in such a way that the electromagnetic field emitted by the slot antenna (1; 60) can be expressed via Bessel functions.
A filter cloth for a bag filter, comprising a nonwoven fabric and a base fabric, the filter cloth for a bag filter being characterized in that the nonwoven fabric contains an ultrafine fiber having a fiber diameter D of 200 to 2,000 nm, and the nonwoven fabric has a porosity within a range of 90 to 97%.
A hair removal device comprising an erodible solid moisturizer, the erodible solid moisturizer comprising: a. A saturated modifying surfactant comprising: i. A carbon chain with 16 to 20 carbon atoms; ii. From 1 to 19 ethylene oxide groups; b. At least 50% hydrophobic phase by weight of the erodible solid moisturizer. a. A saturated modifying surfactant comprising: i. A carbon chain with 16 to 20 carbon atoms; ii. From 1 to 19 ethylene oxide groups; i. A carbon chain with 16 to 20 carbon atoms; ii. From 1 to 19 ethylene oxide groups; b. At least 50% hydrophobic phase by weight of the erodible solid moisturizer.
A system for managing pain in a patient using an electrical waveform, comprising: an electrode device configured to be implanted into a patient and including a plurality of electrodes having at least a first electrode associated with a first area of the patient and a second electrode associated with a second area of the patient, and an implantable device configured to be coupled to the electrode device, the implantable device including a power supply, a waveform generator configured to generate the waveform, and a computer-operable medium operatively coupled to the waveform generator characterized in that the first area has a first therapy range for a waveform parameter and the second area has a second therapy range for the waveform parameter; and the computer-operable medium is programmed to change the waveform parameter applied to the first electrode and automatically set the waveform parameter applied to the second electrode based on a relationship between the first therapy range and the second therapy range. an electrode device configured to be implanted into a patient and including a plurality of electrodes having at least a first electrode associated with a first area of the patient and a second electrode associated with a second area of the patient, and an implantable device configured to be coupled to the electrode device, the implantable device including a power supply, a waveform generator configured to generate the waveform, and a computer-operable medium operatively coupled to the waveform generator characterized in that the first area has a first therapy range for a waveform parameter and the second area has a second therapy range for the waveform parameter; and the computer-operable medium is programmed to change the waveform parameter applied to the first electrode and automatically set the waveform parameter applied to the second electrode based on a relationship between the first therapy range and the second therapy range.
A method of producing insulating blocks for wall-building, the method comprising: • making blocks, each block made in this way having walls (1a, 1b) between which there is at least one recess internal to the block; the method of producing insulating blocks being characterized in that it comprises: • placing blocks in a first enclosure having peripheral walls with inside faces facing towards the inside of the first enclosure in order to come into contact against the outside faces of the blocs to be found in the first enclosure, at least some of the inside faces of the peripheral walls of the first enclosure comprising an elastic and compressible first material that, when compressed against an outside face of a block, opposes the passage of expanding foam between the inside face of the peripheral wall of the first enclosure and the outside face of the block against which the elastic first material is compressed, the elastic material being formed by a layer of elastomer material coated in a facing layer placed facing the inside of the first enclosure, the facing layer being made of a material to which an expanding insulating foam does not adhere; • introducing said expanding insulating foam in at least some of the internal recesses of the blocks arranged inside said first enclosure; and • using first compression means connected to the first enclosure to apply compression forces to at least some of the walls (1a, 1b) of the blocks, the compression forces being oriented to oppose expansion forces exerted against the walls of the blocks by the expanding insulating foam. • making blocks, each block made in this way having walls (1a, 1b) between which there is at least one recess internal to the block; the method of producing insulating blocks being characterized in that it comprises: • placing blocks in a first enclosure having peripheral walls with inside faces facing towards the inside of the first enclosure in order to come into contact against the outside faces of the blocs to be found in the first enclosure, at least some of the inside faces of the peripheral walls of the first enclosure comprising an elastic and compressible first material that, when compressed against an outside face of a block, opposes the passage of expanding foam between the inside face of the peripheral wall of the first enclosure and the outside face of the block against which the elastic first material is compressed, the elastic material being formed by a layer of elastomer material coated in a facing layer placed facing the inside of the first enclosure, the facing layer being made of a material to which an expanding insulating foam does not adhere; • introducing said expanding insulating foam in at least some of the internal recesses of the blocks arranged inside said first enclosure; and • using first compression means connected to the first enclosure to apply compression forces to at least some of the walls (1a, 1b) of the blocks, the compression forces being oriented to oppose expansion forces exerted against the walls of the blocks by the expanding insulating foam.
A composition C1 comprising: a) a transparent material M1 and, b) inorganic particles P1 having a refractive index n 1, comprising an inorganic compound either of the formula AB x C 1-x X 3, wherein x is from 0 to 1 and A, B, and C are cations and X is an anion; or inorganic particle P1 comprises an inorganic compound of the formula A' i-y A" y CX 3, wherein y is from 0 to 1 and A', A", and C are cations and X is an anion; or inorganic particle P1 comprises an inorganic compound of the formula A' 1-y A" y B x C 1-x X 3, wherein x is from 0 to 1, y is from 0 to 1 and A', A", B, and C are cations and X is an anion; said particles are having a weight average particle diameter d 1 between 1nm and 1μm, c) particles P2 that are different from the inorganic particles P1, said difference between particles P1 and particles P2 is either the refractive index n or the weight average particle diameter d or both; characterized in that the sum of particles P1 and P2 represents between 0.1ppm and 10wt% of the composition C1 comprising the components a) b) and c). a) a transparent material M1 and, b) inorganic particles P1 having a refractive index n 1, comprising an inorganic compound either of the formula AB x C 1-x X 3, wherein x is from 0 to 1 and A, B, and C are cations and X is an anion; or inorganic particle P1 comprises an inorganic compound of the formula A' i-y A" y CX 3, wherein y is from 0 to 1 and A', A", and C are cations and X is an anion; or inorganic particle P1 comprises an inorganic compound of the formula A' 1-y A" y B x C 1-x X 3, wherein x is from 0 to 1, y is from 0 to 1 and A', A", B, and C are cations and X is an anion; said particles are having a weight average particle diameter d 1 between 1nm and 1μm, or inorganic particle P1 comprises an inorganic compound of the formula A' i-y A" y CX 3, wherein y is from 0 to 1 and A', A", and C are cations and X is an anion; or inorganic particle P1 comprises an inorganic compound of the formula A' 1-y A" y B x C 1-x X 3, wherein x is from 0 to 1, y is from 0 to 1 and A', A", B, and C are cations and X is an anion; said particles are having a weight average particle diameter d 1 between 1nm and 1μm, c) particles P2 that are different from the inorganic particles P1, said difference between particles P1 and particles P2 is either the refractive index n or the weight average particle diameter d or both;
Container for transporting refrigerated and/or frozen products, having an underside configured as a set-down surface, comprising at least two mutually separated refrigeration chambers (7, 8) for receiving refrigerated or frozen products, a number of coolant chambers (9, 10), corresponding to the number of refrigeration chambers (7, 8), for optionally receiving coolant are provided, wherein in each case one coolant chamber (9, 10) is connected to a refrigeration chamber (7, 8) via at least one fluid line and in each case at least two coolant chambers (9, 10) are connected together via at least one fluid line, characterized in that the container has a cover on the top side located opposite the underside, said cover being configured to jointly close at least two refrigeration chambers (7, 8) of the container, wherein the coolant chambers (9, 10) associated with the refrigeration chambers (7, 8) that are closable by the cover are arranged in the cover, and wherein the cover is configured such that, with the cover closed, in each case one of the refrigeration chambers (7, 8) closed by the cover is fluidically connected to a coolant chamber (9, 10) in the cover.
Bending device for bending a workpiece having an upper tool and a lower tool, wherein the workpiece can be arranged between the upper tool and the lower tool - placement state -, the upper tool and the lower tool can be moved toward one another until the workpiece is in contact with the upper tool and the lower tool - initial bending state -, the upper tool and the lower tool can be brought closer together under the application of force during the bending process under bending deformation of the workpiece - bending state -, until the bent, final state of the workpiece has been reached - final bending state -, and wherein the upper tool is rigidly designed, wherein the lower tool is designed with a variable contour and the lower tool increasingly adapts to the upper tool - being spaced apart by the workpiece, characterized in that the lower tool is designed at least as one flat belt and tension can be applied to the flat belt by means of a tensioning device.
Multifunctional operating device in the form of a flush-mounted installation device with a central plate, device socket and cover frame, • having a rotary knob as a first operating element, • having a multiplicity of function symbols (11.1, 11.2, 11.3 etc.) which are integrated in the central plate along the circumference of the rotary knob and can be selected by turning the rotary knob, • having a pushbutton knob, as a second operating element, which activates a microbutton, characterized in that • the rotary knob is connected to an incremental signal generator and is mounted in the central plate by means of a rotary bearing, • each function symbol which can be selected by means of the rotary knob is assigned to a device which is to be actuated, • a microcontroller is provided which receives incremental signal generator signals of the incremental signal generator and outputs a corresponding function symbol signal (FS.1, FS.2, FS.3 etc.) to an LED actuation unit (15.1, 15.2, 15.3 etc.) of an LED display (12.1, 12.2, 12.3 etc.), • a bus connector is provided which is connected to a bus of the building system equipment to which the devices which can be actuated are connected, • the microcontroller receives actuation signals of the microbutton and correspondingly outputs to the bus connector actuation signals which are to be fed to the selected device. • having a rotary knob as a first operating element, • having a multiplicity of function symbols (11.1, 11.2, 11.3 etc.) which are integrated in the central plate along the circumference of the rotary knob and can be selected by turning the rotary knob, • having a pushbutton knob, as a second operating element, which activates a microbutton, characterized in that • the rotary knob is connected to an incremental signal generator and is mounted in the central plate by means of a rotary bearing, • each function symbol which can be selected by means of the rotary knob is assigned to a device which is to be actuated, • a microcontroller is provided which receives incremental signal generator signals of the incremental signal generator and outputs a corresponding function symbol signal (FS.1, FS.2, FS.3 etc.) to an LED actuation unit (15.1, 15.2, 15.3 etc.) of an LED display (12.1, 12.2, 12.3 etc.), • a bus connector is provided which is connected to a bus of the building system equipment to which the devices which can be actuated are connected, • the microcontroller receives actuation signals of the microbutton and correspondingly outputs to the bus connector actuation signals which are to be fed to the selected device.
A hospital bed with a guiding wheel, the guiding wheel movable between at least two positions where in a first position the guiding wheel is out of contact with a surface and where in a second position the guiding wheel is in the contact with the surface, comprising a chassis, at least one pedal, a drawbar for transferring a movement of the pedal to a lever, the drawbar is connected to a connection means, connection means comprising a cam, a guiding member and the lever for the movement of the guiding wheel between at least two positions characterized in that the guiding member is moved along the cam by the substantially horizontal movement of the drawbar.
A plate-like particle for a lithium secondary battery cathode active material, the particle having a layered rock salt structure, characterized in that a plane is oriented in a direction intersecting the direction of a plate surface of the particle.
A lighting apparatus (801, 802, 803, 804, 805, 806), comprising: a light source module (2012, 4011, 4012) comprising a plurality of LED modules; a light passing cover, for allowing a light of the light source module (2012, 4011, 4012) to pass through; a base plate (2011, 4014, 6015) connected to the light passing cover forming a container space, the base plate (2011, 4014, 6015) having an elongated shape; a first end module (1013, 1021, 2015, 4016, 6011); and a second end module (1014, 1022, 2014, 4017), wherein the first end module (1013, 1021, 2015, 4016, 6011) and the second end module (1014, 1022, 2014, 4017) are attached at two opposite ends of the base plate (2011, 4014, 6015) for sealing the container space, the first end module (1013, 1021, 2015, 4016, 6011) is selectively connected to another second end module (1014, 1022, 2014, 4017) of another lighting apparatus for routing electricity and a control signal, characterized in that a length of the base plate (2011, 4014, 6015) is adjustable. a light source module (2012, 4011, 4012) comprising a plurality of LED modules; a light passing cover, for allowing a light of the light source module (2012, 4011, 4012) to pass through; a base plate (2011, 4014, 6015) connected to the light passing cover forming a container space, the base plate (2011, 4014, 6015) having an elongated shape; a first end module (1013, 1021, 2015, 4016, 6011); and a second end module (1014, 1022, 2014, 4017), wherein the first end module (1013, 1021, 2015, 4016, 6011) and the second end module (1014, 1022, 2014, 4017) are attached at two opposite ends of the base plate (2011, 4014, 6015) for sealing the container space, the first end module (1013, 1021, 2015, 4016, 6011) is selectively connected to another second end module (1014, 1022, 2014, 4017) of another lighting apparatus for routing electricity and a control signal, characterized in that a length of the base plate (2011, 4014, 6015) is adjustable.
A protein kinase RNA-like endoplasmic reticulum kinase (PERK) inhibitor for use in a method of treating minimal residual cancer in a subject, said method comprising: contacting disseminated cancer cells (DCCs) in a subject with the protein kinase RNA-like endoplasmic reticulum kinase (PERK) inhibitor, wherein said contacting eradicates DCCs in the subject to treat minimal residual cancer in the subject; wherein said protein kinase RNA-like endoplasmic reticulum kinase (PERK) inhibitor is selected from 3-amino-6-[4-[[ -2-(3,5-difluorophenyl)-2-hydroxy-acetyl]amino]-2-methyl-phenyl]-N-methyl-pyrazine-2-carboxamide, having a chemical structure -N-[4-(4-amino-7-methyl-pyrrolo[2,3-d]pyrimidin-5-yl)-3-methylphenyl]-2-(3-fluorophenyl)-2-hydroxy-acetamide, having a chemical structure and 2-amino-5-[4-[[ -2-(3,5-difluorophenyl)-2-hydroxy-acetyl]amino]-2-methyl-phenyl]-N-isopropyl-pyridine-3-carboxamide, having a chemical structure contacting disseminated cancer cells (DCCs) in a subject with the protein kinase RNA-like endoplasmic reticulum kinase (PERK) inhibitor, wherein said contacting eradicates DCCs in the subject to treat minimal residual cancer in the subject; wherein said protein kinase RNA-like endoplasmic reticulum kinase (PERK) inhibitor is selected from 3-amino-6-[4-[[ -2-(3,5-difluorophenyl)-2-hydroxy-acetyl]amino]-2-methyl-phenyl]-N-methyl-pyrazine-2-carboxamide, having a chemical structure -N-[4-(4-amino-7-methyl-pyrrolo[2,3-d]pyrimidin-5-yl)-3-methylphenyl]-2-(3-fluorophenyl)-2-hydroxy-acetamide, having a chemical structure and 2-amino-5-[4-[[ -2-(3,5-difluorophenyl)-2-hydroxy-acetyl]amino]-2-methyl-phenyl]-N-isopropyl-pyridine-3-carboxamide, having a chemical structure 3-amino-6-[4-[[ -2-(3,5-difluorophenyl)-2-hydroxy-acetyl]amino]-2-methyl-phenyl]-N-methyl-pyrazine-2-carboxamide, having a chemical structure -N-[4-(4-amino-7-methyl-pyrrolo[2,3-d]pyrimidin-5-yl)-3-methylphenyl]-2-(3-fluorophenyl)-2-hydroxy-acetamide, having a chemical structure and 2-amino-5-[4-[[ -2-(3,5-difluorophenyl)-2-hydroxy-acetyl]amino]-2-methyl-phenyl]-N-isopropyl-pyridine-3-carboxamide, having a chemical structure