mhurhangee/ep-ind-claims huggingface dataset:
An implantable medical device, comprising control circuitry that is configured to: measure one or more electrical parameters associated with one or more of a plurality of electrodes (E1'-E32') that are connected to the implantable medical device; generate a replacement connected electrode profile from the measured one or more parameters; receive an initial connected electrode profile of the plurality of electrodes from a prior implanted medical device; and compare the replacement connected electrode profile with the initial connected electrode profile to determine whether the plurality of electrodes are connected to the implantable medical device in a same manner as the plurality of electrodes were connected to the prior implanted medical device. measure one or more electrical parameters associated with one or more of a plurality of electrodes (E1'-E32') that are connected to the implantable medical device; generate a replacement connected electrode profile from the measured one or more parameters; receive an initial connected electrode profile of the plurality of electrodes from a prior implanted medical device; and compare the replacement connected electrode profile with the initial connected electrode profile to determine whether the plurality of electrodes are connected to the implantable medical device in a same manner as the plurality of electrodes were connected to the prior implanted medical device.
An electrical equipment comprising an electrical equipment main unit housing space (10, 15, 20, 25) and an electric power cable housing space (11, 16, 21, 26) which are located on the right and left sides to each other in a housing (8, 13, 18, 23), wherein; - an electrical equipment main unit (83, 84, 85, 86) is accommodated in the electrical equipment main unit housing space (10, 15, 20, 25), - a power cable connected to the electrical equipment main unit is accommodated in the power cable housing space (11, 16, 21, 26), - a ground bus (7, 12, 17, 22) for grounding the electrical equipment main unit (83, 84, 85, 86) is comprised by a left and right extended ground bus (7LR, 12LR, 17LR, 22LR) and a front and rear extended ground bus (7FR,12FR, 17FR, 22FR), - wherein, the left and right extended ground bus (7LR, 12LR, 17LR, 22LR) is located inside the housing (8, 13, 18, 23) and extends in a left to right direction relative to the housing (8, 13, 18, 23) and is positioned at the rear of the housing (8, 13, 18, 23), - wherein, the front and rear extended ground bus (7FR, 12FR, 17FR, 22FR) extends in a front to rear direction relative to the housing (8, 13, 18, 23), is positioned in the power cable housing space (11, 16, 21, 26) on the side opposite to the side adjacent the electrical equipment main unit housing space (10, 15, 20, 25), is connected to the left and right extended ground bus (7LR, 12LR, 17LR, 22LR), and has a ground wire attachment part (9, 14, 19, 24) for attachment to the electrical equipment main unit (83, 84, 85, 86). - an electrical equipment main unit (83, 84, 85, 86) is accommodated in the electrical equipment main unit housing space (10, 15, 20, 25), - a power cable connected to the electrical equipment main unit is accommodated in the power cable housing space (11, 16, 21, 26), - a ground bus (7, 12, 17, 22) for grounding the electrical equipment main unit (83, 84, 85, 86) is comprised by a left and right extended ground bus (7LR, 12LR, 17LR, 22LR) and a front and rear extended ground bus (7FR,12FR, 17FR, 22FR), - wherein, the left and right extended ground bus (7LR, 12LR, 17LR, 22LR) is located inside the housing (8, 13, 18, 23) and extends in a left to right direction relative to the housing (8, 13, 18, 23) and is positioned at the rear of the housing (8, 13, 18, 23), - wherein, the front and rear extended ground bus (7FR, 12FR, 17FR, 22FR) extends in a front to rear direction relative to the housing (8, 13, 18, 23), is positioned in the power cable housing space (11, 16, 21, 26) on the side opposite to the side adjacent the electrical equipment main unit housing space (10, 15, 20, 25), is connected to the left and right extended ground bus (7LR, 12LR, 17LR, 22LR), and has a ground wire attachment part (9, 14, 19, 24) for attachment to the electrical equipment main unit (83, 84, 85, 86).
A conveyor skirt system, the system comprising: a support member fixed relative to the conveyor; and a series of skirting panels releasably fixed to the support member, characterised in that the system further comprises a rail assembly positioned outside the conveyor, extending in a direction substantially parallel to the direction of the conveyor; and a trolley assembly mounted on the rail assembly, the trolley assembly being adapted to engage and support one or more of the skirting panels. a support member fixed relative to the conveyor; and a series of skirting panels releasably fixed to the support member, characterised in that the system further comprises a rail assembly positioned outside the conveyor, extending in a direction substantially parallel to the direction of the conveyor; and a trolley assembly mounted on the rail assembly, the trolley assembly being adapted to engage and support one or more of the skirting panels.
A tire having a tread, wherein: provided that the center position in the tire width direction of a tread surface is the center position A, a position distanced from the center position A on each side in the tire width direction along a periphery of the tread surface by 1/4 of the entire peripheral length of the tread surface is position B, a length of a straight line l A drawn from the center position A to be normal to the tire rotation axis P is L A, a length of a straight line drawn from the position B to be normal to the tire rotation axis P is L B, an intersection of the straight line l A and a straight line drawn from the position B to be normal to the straight line l A is position C, and a length between the position B and the position C is X, (L A - L B)/X is in the range of 0.325 to 0.350; and the tread is obtained by using a rubber composition containing 40-140 parts by mass of a filler including silica and 5-40 parts by mass of a low softening point resin having softening point not higher than 145 °C with respect to 100 parts by mass of a rubber component including a modified conjugated diene-based polymer; and the softening point of the low softening point resin is measured by a method according to JIS K-2207 6.4 "Softening point test method (Ring and ball method)". provided that the center position in the tire width direction of a tread surface is the center position A, a position distanced from the center position A on each side in the tire width direction along a periphery of the tread surface by 1/4 of the entire peripheral length of the tread surface is position B, a length of a straight line l A drawn from the center position A to be normal to the tire rotation axis P is L A, a length of a straight line drawn from the position B to be normal to the tire rotation axis P is L B, an intersection of the straight line l A and a straight line drawn from the position B to be normal to the straight line l A is position C, and a length between the position B and the position C is X, (L A - L B)/X is in the range of 0.325 to 0.350; and the tread is obtained by using a rubber composition containing 40-140 parts by mass of a filler including silica and 5-40 parts by mass of a low softening point resin having softening point not higher than 145 °C with respect to 100 parts by mass of a rubber component including a modified conjugated diene-based polymer; and the softening point of the low softening point resin is measured by a method according to JIS K-2207 6.4 "Softening point test method (Ring and ball method)".
A system comprising: a helmet adapted to secure around a head of a wearer and having an inner surface and an outer surface, the helmet defining a plane of symmetry; and a helmet fit system mounted to the helmet, the helmet fit system including: a harness; a first anchor mounted to the inner surface of the helmet on a first side of the plane of symmetry; a second anchor mounted to the inner surface of the helmet on a second side of the plane of symmetry opposite the first side; and characterized by a tensioning mechanism mounted to the outer surface of the helmet on the first side of the plane of symmetry; and a cable passing from a first point of securement on the tensioning mechanism, around the first anchor, through the harness, and around the second anchor. a helmet adapted to secure around a head of a wearer and having an inner surface and an outer surface, the helmet defining a plane of symmetry; and a helmet fit system mounted to the helmet, the helmet fit system including: a harness; a first anchor mounted to the inner surface of the helmet on a first side of the plane of symmetry; a second anchor mounted to the inner surface of the helmet on a second side of the plane of symmetry opposite the first side; and characterized by a tensioning mechanism mounted to the outer surface of the helmet on the first side of the plane of symmetry; and a cable passing from a first point of securement on the tensioning mechanism, around the first anchor, through the harness, and around the second anchor. a harness; a first anchor mounted to the inner surface of the helmet on a first side of the plane of symmetry; a second anchor mounted to the inner surface of the helmet on a second side of the plane of symmetry opposite the first side; and characterized by a tensioning mechanism mounted to the outer surface of the helmet on the first side of the plane of symmetry; and a cable passing from a first point of securement on the tensioning mechanism, around the first anchor, through the harness, and around the second anchor.
An angle sensor, comprising: a steering shaft of a vehicle; a ring-shaped main gear rotating along with the steering shaft; a first subsidiary gear rotated by rotation of the main gear with a magnet coupled to a surface of the first subsidiary gear; a second subsidiary gear with a magnet attached to a surface of the second subsidiary gear and engaging with the main gear, wherein the second subsidiary gear engages with the first subsidiary gear; and a Hall IC detecting a change in magnetic field of the magnets (31, 32) and outputting data on a rotation amount, characterized in that the first subsidiary gear rotates four times while the main gear rotates once, thus measuring a rotation amount of the steering shaft, and wherein the gear ratio of the second subsidiary gear to the first subsidiary gear is 1:1. a steering shaft of a vehicle; a ring-shaped main gear rotating along with the steering shaft; a first subsidiary gear rotated by rotation of the main gear with a magnet coupled to a surface of the first subsidiary gear; a second subsidiary gear with a magnet attached to a surface of the second subsidiary gear and engaging with the main gear, wherein the second subsidiary gear engages with the first subsidiary gear; and a Hall IC detecting a change in magnetic field of the magnets (31, 32) and outputting data on a rotation amount, characterized in that the first subsidiary gear rotates four times while the main gear rotates once, thus measuring a rotation amount of the steering shaft, and wherein the gear ratio of the second subsidiary gear to the first subsidiary gear is 1:1.
Filter material comprising a wet-laid nonwoven, a dry-laid nonwoven, a woven or a foam, characterised in that the filter material is impregnated with a pre-crosslinked binder system on a first side, the pre-crosslinked binder system being curred to 30 % to 80 % of its theoretical final curing, and on the other, second side with a crosslinkable, but not yet or largely not crosslinked binder system, which is cured to a maximum of 30 % of its theoretical final curing.
A process for preparing a cultured cancer tissue-derived cell mass, which comprises the steps of: treating, with a collagenase containing enzyme, a pulverized product of a cancer tissue removed from a living body; selecting and collecting a mass containing at least three cancer cells having a diameter or long diameter of 20μm to 500μm or volume average particle size of 20 to 500μm from the enzymatically treated product with a process for assorting the size; and culturing the collected masses to obtain a cultured mass that takes an almost spherical or ellipsoidal form wherein the cultured cancer tissue-derived cell mass does not contain substantially any cells other than cancer cells. treating, with a collagenase containing enzyme, a pulverized product of a cancer tissue removed from a living body; selecting and collecting a mass containing at least three cancer cells having a diameter or long diameter of 20μm to 500μm or volume average particle size of 20 to 500μm from the enzymatically treated product with a process for assorting the size; and culturing the collected masses to obtain a cultured mass that takes an almost spherical or ellipsoidal form wherein the cultured cancer tissue-derived cell mass does not contain substantially any cells other than cancer cells.
Method for detecting and monitoring a structural change in at least one structural component of a wind turbine, specifically for monitoring a structural component for a material crack or for monitoring a distance between two structural components, wherein at least one optical waveguide is positioned in the region of the surface of the at least one structural component and is guided along a region to be monitored of the structural component, in such a way that a structural change leads to a change in length of the optical waveguide, wherein furthermore a measurement signal is guided through the optical waveguide, and is evaluated in regard to the change in length, i.e. in regard to elongation / compression of the optical waveguide, and wherein a conclusion about the structural change is drawn therefrom, wherein the optical waveguide is a stretchable, polymeric optical waveguide, which has an elasticity and which is connected to the structural component in a materially bonded manner, wherein as a result of the elasticity periodically recurring structural changes are detected and the optical waveguide is subject to a periodically recurring load, such that it is periodically recurringly stretched / compressed.
An electrical heating unit for a heating device for a vehicle comprising a heating layer and a heat conducting body made of metal, wherein the heating layer comprises at least one heating resistor, and the heat conducting body comprises a heat absorbing face for absorbing heat from the heating layer and a heat releasing face for releasing heat to a heat carrier fluid, wherein the heat conducting body comprises a base body and at least two heat releasing bodies, wherein the base body and the heat releasing bodies are connected to each other by substance bonding or are integrally formed, wherein the heat absorbing face is a surface of the base body facing the heating layer and extending parallel to the heating layer, and the heat releasing face is a surface of the heat releasing bodies, wherein an electrically insulating insulation layer is provided between the heating layer and the base body and wherein the base body, the electrically insulating insulation layer, and the heating layer are connected to each other by substance bonding, wherein the electrically insulating insulation layer is applied to the heat conducting body that serves as a substrate and the heating layer is applied to the electrically insulating insulation layer, characterized in that the insulation layer contains a ceramic material or a polymer material, such that the insulation layer has a heat expansion coefficient matching with the heat expansion coefficient of the heat conducting body.
An orthopaedic shoulder prosthesis for replacing the humeral head of a patient's humerus, comprising: a humeral head component (12, 210) comprising (i) a generally hemispherically-shaped bearing surface, and (ii) a backside surface opposite the bearing surface, and (iii) a tapered post extending laterally away from the backside surface, and a stemless humeral component comprising (i) a circular-shaped flange, (ii) an elongated sleeve, secured to, and extending laterally away from a bottom surface of the circular-shaped flange, the elongated sleeve having formed therein a tapered bore configured to receive the tapered post of the humeral head component, and (iii) a number of cantilevered legs extending laterally away from the bottom surface of the circular-shaped flange in the same direction as the elongated sleeve, in which each of the cantilevered legs has one end thereof secured to the bottom surface of the circular-shaped flange and a second end spaced apart from both the other cantilevered legs and the elongated sleeve, wherein each of the cantilevered legs comprises a bone-engaging plate having a plurality of serrations formed therein, each of the plurality of serrations being angled upwardly in a direction toward the circular-shaped flange, and in which each of the cantilevered legs further comprises an elongated rib secured to the bone-engaging plate and extending inwardly therefrom in a direction toward the elongated sleeve. a humeral head component (12, 210) comprising (i) a generally hemispherically-shaped bearing surface, and (ii) a backside surface opposite the bearing surface, and (iii) a tapered post extending laterally away from the backside surface, and a stemless humeral component comprising (i) a circular-shaped flange, (ii) an elongated sleeve, secured to, and extending laterally away from a bottom surface of the circular-shaped flange, the elongated sleeve having formed therein a tapered bore configured to receive the tapered post of the humeral head component, and (iii) a number of cantilevered legs extending laterally away from the bottom surface of the circular-shaped flange in the same direction as the elongated sleeve, in which each of the cantilevered legs has one end thereof secured to the bottom surface of the circular-shaped flange and a second end spaced apart from both the other cantilevered legs and the elongated sleeve, wherein each of the cantilevered legs comprises a bone-engaging plate having a plurality of serrations formed therein, each of the plurality of serrations being angled upwardly in a direction toward the circular-shaped flange, and in which each of the cantilevered legs further comprises an elongated rib secured to the bone-engaging plate and extending inwardly therefrom in a direction toward the elongated sleeve.
Hybrid structure for a surface acoustic wave device, comprising a useful layer of piezoelectric material having a free first face and a second face that is arranged on a support substrate having a coefficient of thermal expansion lower than that of the useful layer, the hybrid structure being characterized in that it comprises: • a trapping layer interposed between the useful layer and the support substrate, the trapping layer being formed by implantation in a surface layer of the support substrate or by etching and structuring of the surface layer of the support substrate; • at least one functional interface of a predetermined roughness, between the useful layer and the trapping layer. • a trapping layer interposed between the useful layer and the support substrate, the trapping layer being formed by implantation in a surface layer of the support substrate or by etching and structuring of the surface layer of the support substrate; • at least one functional interface of a predetermined roughness, between the useful layer and the trapping layer.
A compensation film comprising at least one regioselectively substituted cellulose ester with a RDS ratio of C 6 >C 3 >C 2 wherein said regioselectively substituted cellulose ester is prepared from cellulose having an α-cellulose content of at least 95 percent by weight and wherein the compensation film has an R th range from -400 to +100 nm.
A method of producing an electrode for a capacitor, which comprises at least a current collector and an electrode layer on the current collector, the method comprising the steps of: applying an electrode layer coating material which comprises at least a carbon material, a binder and a solvent, onto the current collector to form an electrode coating layer; drying the electrode coating layer on the current collector to set the amount of the solvent remaining in the whole of the layer formed on the current collector within a range of 5 to 35% by weight of the layer; and subjecting the electrode coating layer after the drying to calendering treatment to yield an electrode layer. applying an electrode layer coating material which comprises at least a carbon material, a binder and a solvent, onto the current collector to form an electrode coating layer; drying the electrode coating layer on the current collector to set the amount of the solvent remaining in the whole of the layer formed on the current collector within a range of 5 to 35% by weight of the layer; and subjecting the electrode coating layer after the drying to calendering treatment to yield an electrode layer.
Method for transmitting a data message from a first automation appliance in an automation installation to a second automation appliance in the automation installation, in which the following steps are performed: - matching lists containing sequences of secret character strings are produced in both automation appliances (20a, 20b), wherein a sequence is produced from a secret output character string, which is known to both automation appliances (20a, 20b), by repeatedly applying a one-way function such that a respective secret character string that is antecedent in the sequence is taken and the one-way function is used to produce a secret character string that is subsequent in the sequence; - the first automation appliance produces a data message which comprises a data section and a check identifier, wherein the check identifier is generated using at least the data section and the secret character string presented in the list of the first automation appliance at the nth position in the sequence; - the data message is transmitted to the second automation appliance; - a comparison check identifier is produced using at least the data section from the received data message and the secret character string presented in the list of the second automation appliance at the nth position in the sequence; - the check identifier of the received data message is compared with the comparison check identifier; and - the received data message is classed as trustworthy if the check identifier matches the comparison check identifier. - matching lists containing sequences of secret character strings are produced in both automation appliances (20a, 20b), wherein a sequence is produced from a secret output character string, which is known to both automation appliances (20a, 20b), by repeatedly applying a one-way function such that a respective secret character string that is antecedent in the sequence is taken and the one-way function is used to produce a secret character string that is subsequent in the sequence; - the first automation appliance produces a data message which comprises a data section and a check identifier, wherein the check identifier is generated using at least the data section and the secret character string presented in the list of the first automation appliance at the nth position in the sequence; - the data message is transmitted to the second automation appliance; - a comparison check identifier is produced using at least the data section from the received data message and the secret character string presented in the list of the second automation appliance at the nth position in the sequence; - the check identifier of the received data message is compared with the comparison check identifier; and - the received data message is classed as trustworthy if the check identifier matches the comparison check identifier.