mhurhangee/ep-ind-claims huggingface dataset:
Method for monitoring a state of a physical passenger transport system using an updated digital dataset double UDDD which comprises characterizing properties of components of the physical passenger transport system in a machine-processable manner, wherein • the physical passenger transport system has a circulating conveyor belt; • the UDDD is constructed from component model datasets (114-NN) that comprise data which were determined by measuring characterizing properties on the physical passenger transport system after the assembly and installation thereof in a structure; • the physical passenger transport system also has at least one detection device which detects a load profile of the conveyor belt (7, 11, 31, 36) during operation; • this load profile is transmitted as measurement data to the UDDD and, using a set of rules, characterizing properties of the component model datasets (114 - NN) affected by the transmitted measurement data are redetermined; • the characterizing properties of the affected component model datasets (114 - NN) are then updated with the redetermined, characterizing properties; and, by means of the monitoring, changes and change trends in the updated characterizing properties of the circulating conveyor belt and their influence on the components of the conveyor belt and on the components interacting with these components can be tracked and evaluated by means of the UDDD by calculations and/or by static and dynamic simulations. • the physical passenger transport system has a circulating conveyor belt; • the UDDD is constructed from component model datasets (114-NN) that comprise data which were determined by measuring characterizing properties on the physical passenger transport system after the assembly and installation thereof in a structure; • the physical passenger transport system also has at least one detection device which detects a load profile of the conveyor belt (7, 11, 31, 36) during operation; • this load profile is transmitted as measurement data to the UDDD and, using a set of rules, characterizing properties of the component model datasets (114 - NN) affected by the transmitted measurement data are redetermined; • the characterizing properties of the affected component model datasets (114 - NN) are then updated with the redetermined, characterizing properties;
An ossicular prosthesis for implantation entirely within the middle ear, the prosthesis comprising: a) a head configured to contact a first middle ear anatomy, the head including an outer surface, an inner surface, a through opening extending through the head from the outer surface to the inner surface; b) a resilient sleeve located within the through opening of the head, the sleeve having a throughbore, the sleeve and throughbore exposed at both the outer and inner surfaces (26, 28) of the head; and c) a shaft extending within the sleeve, the shaft having a portion extending within the sleeve and a distal end provided with structure for contacting a second middle ear anatomy, wherein the shaft is angularly displaceable relative to the head by resilient deformation of the sleeve. a) a head configured to contact a first middle ear anatomy, the head including an outer surface, an inner surface, a through opening extending through the head from the outer surface to the inner surface; b) a resilient sleeve located within the through opening of the head, the sleeve having a throughbore, the sleeve and throughbore exposed at both the outer and inner surfaces (26, 28) of the head; and c) a shaft extending within the sleeve, the shaft having a portion extending within the sleeve and a distal end provided with structure for contacting a second middle ear anatomy, wherein the shaft is angularly displaceable relative to the head by resilient deformation of the sleeve.
Control device for a vehicle brake system with a hydraulic vehicle brake and with an electromechanical brake device with at least one electric brake motor, with a microcontroller for actuating at least one active brake component which is designed as an electrically controllable actuator for influencing the hydraulic pressure in the hydraulic vehicle brake, characterized in that the brake system control device comprises a system ASIC for detecting wheel revolution rate signals and a brake motor ASIC for actuating the electric brake motor of the electromechanical brake device, wherein wheel revolution rate signals can also be detected in the brake motor ASIC, wherein the microcontroller is connected to the system ASIC and the brake motor ASIC via communications interfaces (SPI_1, SPI_2).
A rowing machine comprising: a frame, wherein the frame includes a first support, a second support, and a beam extending between the first support and the second support; a track defined by at least a portion of the beam; a sliding member movably disposed on the track; and a hinge joint disposed in the beam between the first support and the second support defining a first section of the beam and a second section of the beam and a first abutting face on the first section and a second abutting face on the second section which are in contact in an operating position, characterised in that the hinge joint includes a pivot rod that connects the top side of the first section and the second section whereby in use as the beam is folded into a storage position the hinge joint opens from the bottom side to cause the first section to tilt upwards and the first abutting face to separate from the second abutting face while the top sides of the abutting faces (204, 206) remain joined together through the pivot rod, wherein the second section includes a supporting leg. a frame, wherein the frame includes a first support, a second support, and a beam extending between the first support and the second support; a track defined by at least a portion of the beam; a sliding member movably disposed on the track; and a hinge joint disposed in the beam between the first support and the second support defining a first section of the beam and a second section of the beam and a first abutting face on the first section and a second abutting face on the second section which are in contact in an operating position, characterised in that the hinge joint includes a pivot rod that connects the top side of the first section and the second section whereby in use as the beam is folded into a storage position the hinge joint opens from the bottom side to cause the first section to tilt upwards and the first abutting face to separate from the second abutting face while the top sides of the abutting faces (204, 206) remain joined together through the pivot rod, wherein the second section includes a supporting leg.
An apparatus for surface processing of plastically deformable masses, in particular fresh concrete, mortar or screed, with: an L-shaped housing comprising a first housing axis and a second housing axis, wherein the first housing axis and the second housing axis intersect each other at an angle (α), wherein the L-shaped housing has a handle arranged along the first housing axis, a receptacle for an energy storage device being formed at a free end of the handle, and the L-shaped housing has a head portion arranged along the second housing axis, a base plate being arranged at a free end of the head portion, and the apparatus comprises a vibration unit, characterized in that the vibration unit is at least partially accommodated within the head portion and the base plate is arranged at the vibration unit an L-shaped housing comprising a first housing axis and a second housing axis, wherein the first housing axis and the second housing axis intersect each other at an angle (α), wherein the L-shaped housing has a handle arranged along the first housing axis, a receptacle for an energy storage device being formed at a free end of the handle, and the L-shaped housing has a head portion arranged along the second housing axis, a base plate being arranged at a free end of the head portion, and the apparatus comprises a vibration unit, characterized in that the vibration unit is at least partially accommodated within the head portion and the base plate is arranged at the vibration unit
A building panel comprising: a body having a first major surface opposite a second major surface and a side surface extending therebetween; a coating applied to at least one of the first major surface, the second major surface, or the side surface, the coating comprising: a binder; and a pigment composition comprising: titanium dioxide; an alkali metal aluminum silicate; and a clay; wherein the titanium dioxide is present in an amount ranging from about 3.0 wt. % to about 15.0 wt. % based on the total weight of the pigment composition; and wherein the alkali metal aluminum silicate is present in an amount ranging from about 0.3 wt. % to about 3.0 wt. % based on the total weight of the pigment composition. a body having a first major surface opposite a second major surface and a side surface extending therebetween; a coating applied to at least one of the first major surface, the second major surface, or the side surface, the coating comprising: a binder; and a pigment composition comprising: titanium dioxide; an alkali metal aluminum silicate; and a clay; a binder; and a pigment composition comprising: titanium dioxide; an alkali metal aluminum silicate; and a clay; titanium dioxide; an alkali metal aluminum silicate; and a clay; wherein the titanium dioxide is present in an amount ranging from about 3.0 wt. % to about 15.0 wt. % based on the total weight of the pigment composition; and wherein the alkali metal aluminum silicate is present in an amount ranging from about 0.3 wt. % to about 3.0 wt. % based on the total weight of the pigment composition.
An additive manufacturing system, comprising: an extruder having an opening dimensioned to receive a material; an extruder output in fluid communication with the extruder, wherein the extruder output extends away from the extruder along a longitudinal axis; one or more heaters positioned along at least a portion of the extruder output, wherein as the material passes through the extruder output, the one or more heaters at least partially melt the material; a gear pump in fluid communication with the extruder output for receiving the at least partially melted material; a nozzle in fluid communication with the gear pump for depositing the at least partially melted material; a controller; characterized by a thermographic camera, configured to measure the temperature of the at least partially melted material as it is deposited from the nozzle; and by a manually-controllable actuator connected to the controller and configured to cause the controller to increase or decrease a speed at which the at least partially melted material is deposited by the nozzle so as to increase or decrease a cooling time of layers of a part deposited by the additive manufacturing system, wherein the system is further configured to generate an indicator of whether the speed at which the at least partially melted material is deposited should be changed based on the temperature. an extruder having an opening dimensioned to receive a material; an extruder output in fluid communication with the extruder, wherein the extruder output extends away from the extruder along a longitudinal axis; one or more heaters positioned along at least a portion of the extruder output, wherein as the material passes through the extruder output, the one or more heaters at least partially melt the material; a gear pump in fluid communication with the extruder output for receiving the at least partially melted material; a nozzle in fluid communication with the gear pump for depositing the at least partially melted material; a controller; characterized by a thermographic camera, configured to measure the temperature of the at least partially melted material as it is deposited from the nozzle; and by a manually-controllable actuator connected to the controller and configured to cause the controller to increase or decrease a speed at which the at least partially melted material is deposited by the nozzle so as to increase or decrease a cooling time of layers of a part deposited by the additive manufacturing system, wherein the system is further configured to generate an indicator of whether the speed at which the at least partially melted material is deposited should be changed based on the temperature.
Method for filmless radiographic inspection of components by means of X-rays on the basis of a difference in absorption and intensity, due to internal material defects, of the radiation detected by a digital X-ray detector after the radiography of the component, where the digitized radiation signals are processed in a computer and generate a digitized X-ray image on a monitor, where first the surface topography of the component is digitally recorded, characterized in that using the digitized surface measurement signals, a virtually smoothened surface determined by the highest peak is numerically defined by creating a complementary 3D element, that the complementary 3D element formed between the virtual surface and the actual component surface is supplemented by an X-ray absorption coefficient specific to the respective component material, and that the digital radiation signals of the X-ray detector are superimposed with the digital data of the virtual smoothening layer corresponding to the 3D element, in order to produce an X-ray image with a density curve not affected by the surface geometry of the component.
An inoculant for microbial copper extraction from concentrated copper sulfide ores, which is an aqueous suspension consisting of: a) a thermophilic, acidophilic bacterium isolated from the copper sulfide ore to be processed, b) sulfuric acid, c) nitrogen, phosphorus and potassium sources as nutrients, d) dissolved oxygen, and e) a concentrated copper sulfide ore prepared from the copper sulfide ore to be processed. a) a thermophilic, acidophilic bacterium isolated from the copper sulfide ore to be processed, b) sulfuric acid, c) nitrogen, phosphorus and potassium sources as nutrients, d) dissolved oxygen, and e) a concentrated copper sulfide ore prepared from the copper sulfide ore to be processed.
Reaming insert for a reaming tool having the shape of a mirror-symmetrical polyhedron comprising six limiting surfaces (29, 30), two opposite and mutually parallel ones of which are equidistantly separated from a central symmetry plane and serve as chip surfaces that connect to limiting surfaces serving as clearance surfaces via alternately usable cutting edges, wherein the insert has a rhombic cross-sectional shape in the symmetry plane and comprises four clearance surfaces, which meet each other in pairs at obtuse angles (β) in two opposite corners, and which, along each individual chip surface, together with the same, form two cutting edges alternately usable by the indexing of the cutting insert, wherein in each one of the clearance surfaces, a cavity is countersunk that comprises an axial contact surface, and wherein each individual axial contact surface an angle of between 70° and 110°, in a cavity countersunk in a first clearance surface, forms an angle of between 70° and 110° with a nearby, second clearance surface that connects to one and the same obtuse corner as the first one.
A kit for detection of a pathogen polynucleotide in a biological sample comprising: (a) a reaction vessel comprising: a padlock probe comprising a 5' end complementary to a first section of the pathogen polynucleotide and a 3' end complementary to a second section of the pathogen polynucleotide, wherein the first section and second section of the pathogen polynucleotide sequence are located adjacent to each other; a ligase that anneals the 5' and 3' ends of the padlock probe together to form a circular padlock probe; a primer comprising a polynucleotide complementary to a portion of the padlock probe; a polymerase; and a reporter probe; (b) a reaction buffer that supports polynucleotide ligation and polymerization, wherein the reaction buffer comprises (i) 100 mM Tris-Cl, 10 mM magnesium chloride, 5 mM ammonium sulfate, 1 mM ATP, pH 7.4, optionally in 20% v/v methanol; or (ii) 50 mM Tris-Cl, 10 mM magnesium chloride, 10 mM ammonium sulfate, 4 mM DTT, pH 7.5, optionally further comprising 0.1 mM to 1 mM ATP; and (c) a test strip. (a) a reaction vessel comprising: a padlock probe comprising a 5' end complementary to a first section of the pathogen polynucleotide and a 3' end complementary to a second section of the pathogen polynucleotide, wherein the first section and second section of the pathogen polynucleotide sequence are located adjacent to each other; a ligase that anneals the 5' and 3' ends of the padlock probe together to form a circular padlock probe; a primer comprising a polynucleotide complementary to a portion of the padlock probe; a polymerase; and a reporter probe; (b) a reaction buffer that supports polynucleotide ligation and polymerization, wherein the reaction buffer comprises (i) 100 mM Tris-Cl, 10 mM magnesium chloride, 5 mM ammonium sulfate, 1 mM ATP, pH 7.4, optionally in 20% v/v methanol; or (ii) 50 mM Tris-Cl, 10 mM magnesium chloride, 10 mM ammonium sulfate, 4 mM DTT, pH 7.5, optionally further comprising 0.1 mM to 1 mM ATP; and (i) 100 mM Tris-Cl, 10 mM magnesium chloride, 5 mM ammonium sulfate, 1 mM ATP, pH 7.4, optionally in 20% v/v methanol; or (ii) 50 mM Tris-Cl, 10 mM magnesium chloride, 10 mM ammonium sulfate, 4 mM DTT, pH 7.5, optionally further comprising 0.1 mM to 1 mM ATP; and (c) a test strip.
A secondary battery, comprising: a negative electrode plate, including a negative current collector and a negative electrode film which is arranged on at least one surface of the negative current collector and includes a negative active material; a separation film, including a base material and a coating arranged on at least one surface of the base material; and an electrolyte, including an organic solvent, wherein the negative active material includes a silicon-based material and a carbon material; a thickness of the base material of the separation film is 7μm-12μm; and the organic solvent consists of ethylene carbonate, ethyl methyl carbonate and optionally dimethyl carbonate, and the weight ratio of the ethylene carbonate in the organic solvent is ≤20%, and the weight ratio of the ethyl methyl carbonate in the organic solvent is 60%∼95%. a negative electrode plate, including a negative current collector and a negative electrode film which is arranged on at least one surface of the negative current collector and includes a negative active material; a separation film, including a base material and a coating arranged on at least one surface of the base material; and an electrolyte, including an organic solvent, wherein the negative active material includes a silicon-based material and a carbon material; a thickness of the base material of the separation film is 7μm-12μm; and the organic solvent consists of ethylene carbonate, ethyl methyl carbonate and optionally dimethyl carbonate, and the weight ratio of the ethylene carbonate in the organic solvent is ≤20%, and the weight ratio of the ethyl methyl carbonate in the organic solvent is 60%∼95%.
A positive active material, comprising: an inner core; and a coating layer that coats a surface of the inner core, wherein the inner core is selected from a ternary material with a molecular formula of Li 1-a [Ni x Co y Mn z M b M' c]O 2-d Y d, wherein a doping element M is selected from one or more of Zr, Ti, Te, Ca, and Si; a doping element M' is selected from one or more of Mg, Zn, Al, B, Ce, and Fe; a doping element Y is selected from one or more of F, Cl, and Br; - 0.1≤a≤0.2, 0≤d ≤0.1, 0.7≤x<1, 0<y<0.3, 0<z<0.3, 0<b≤0.1, 0<c≤0.1 and x+y+z+b+c=1; and distribution of each of the doping elements M, M', and Y in the inner core meets the following condition: there is a reduced mass concentration gradient from an outer side of the inner core to a center of the inner core; the coating layer is made of a material that is an oxide of a coating element M", and M" is selected from one or more of Mg, Zn, Al, B, Ce, and Fe; and a mass ratio of the coating element M" in the coating layer to the doping element M' in the inner core is 1:1 to 1:5, preferably 1:1 to 1:3. an inner core; and a coating layer that coats a surface of the inner core, wherein the inner core is selected from a ternary material with a molecular formula of Li 1-a [Ni x Co y Mn z M b M' c]O 2-d Y d, wherein a doping element M is selected from one or more of Zr, Ti, Te, Ca, and Si; a doping element M' is selected from one or more of Mg, Zn, Al, B, Ce, and Fe; a doping element Y is selected from one or more of F, Cl, and Br; - 0.1≤a≤0.2, 0≤d ≤0.1, 0.7≤x<1, 0<y<0.3, 0<z<0.3, 0<b≤0.1, 0<c≤0.1 and x+y+z+b+c=1; and distribution of each of the doping elements M, M', and Y in the inner core meets the following condition: there is a reduced mass concentration gradient from an outer side of the inner core to a center of the inner core; the coating layer is made of a material that is an oxide of a coating element M", and M" is selected from one or more of Mg, Zn, Al, B, Ce, and Fe; and a mass ratio of the coating element M" in the coating layer to the doping element M' in the inner core is 1:1 to 1:5, preferably 1:1 to 1:3.
Method for filling a container space of a waste container/separating device of a pneumatic material conveying system, wherein material is conducted into the container space from a conveying pipe via an inlet aperture and wherein, for bringing about the suction/partial vacuum needed in conveying the material, the suction side of a partial-vacuum source, said source comprising a partial-vacuum generator, is connected to act in the container space of the waste container/separating device and onwards into the conveying pipe, characterized in that by varying the point at which the suction of the partial-vacuum source acts in the container space of the waste container/separating device, the input direction in the container space of the material being conducted into the container space from the inlet aperture is acted upon, wherein at least two suction channels are arranged in the container space, a first suction channel and a second suction channel, at least one suction aperture being provided in each of said suction channels, wherein a medium connection from the suction side of the partial-vacuum generator to the first and/or second suction channel (57, 57') is opened and/or closed with a valve means (36, 36').
An amplification oligomer combination for amplifying human parvovirus genotypes 1, 2, and 3, said oligomer combination comprising a) at least one primer oligomer member comprising a nucleotide sequence selected from the group consisting of SEQ ID NO:47, SEQ ID NO:48, SEQ ID NO:49 and SEQ ID NO: 50 and combinations thereof; b) a first promoter-based oligomer comprising a target binding sequence that is SEQ ID NO: 73; and c) a second promoter-based oligomer member comprising a target binding sequence that is SEQ ID NO:78; wherein said amplification oligomer combination is configured to generate an amplicon that is from about 100 nucleobases in length to about 225 nucleobases in length, and comprises a target specific sequence that contains SEQ ID NO: 39. a) at least one primer oligomer member comprising a nucleotide sequence selected from the group consisting of SEQ ID NO:47, SEQ ID NO:48, SEQ ID NO:49 and SEQ ID NO: 50 and combinations thereof; b) a first promoter-based oligomer comprising a target binding sequence that is SEQ ID NO: 73; and c) a second promoter-based oligomer member comprising a target binding sequence that is SEQ ID NO:78;