mhurhangee/ep-ind-claims huggingface dataset:
Device comprising: a stent; and a plurality of layers that form a laminate coating on said stent, wherein a - first layer comprises a first bioabsorbable polymer, - a second layer comprises a pharmaceutical agent, - a third layer comprises a second bioabsorbable polymer, - a fourth layer comprises the pharmaceutical agent, and - a fifth layer comprises a third bioabsorbable polymer, wherein the first, second and third bioabsorbable polymer can be the same or different wherein the pharmaceutical agent is selected from the group consisting of rapamycin, biolimus (biolimus A9), 40-O-(2-Hydroxyethyl)rapamycin (everolimus), 40-O-Benzyl-rapamycin, 40-O-(4'-Hydroxymethyl)benzyl-rapamycin, 40-O-[4'-(1,2-Dihydroxyethyl)]benzyl-rapamycin, 40-O-Allyl-rapamycin, 40-O-[3'-(2,2-Dimethyl-1,3-dioxolan-4 -yl)-prop-2'-en-1'-yl]-rapamycin, (2':E,4'S)-40-O-(4',5'-Dihydroxypent-2'-en-1'-yl)-rapamycin, 40-O-(2-Hydroxy)ethoxycarbonylmethyl-rapamycin, 40-O-(3-Hydroxy)propyl-rapamycin, 40-O-(6-Hydroxy)hexyl-rapamycin, 40-O-[2-(2-Hydroxy)ethoxy]ethyl-rapamycin, 40-O-[ -2,2-Dimethyldioxolan-3-yl]methyl-rapamycin, 40-O-[ -2,3-Dihydroxyprop-1-yl]-rapamycin, 40-O-(2-Acetoxy)ethyl-rapamycin, 40-O-(2-Nicotinoyloxy)ethyl-rapamycin, 40-O-[2-(N-Morpholino)acetoxy]ethyl-rapamycin, 40-O-(2-N-Imidazolylacetoxy)ethyl-rapamycin, 40-O-[2-(N-Methyl-N'-piperazinyl)acetoxy]ethyl-rapamycin, 39-O-Desmethyl-39,40-O,O-ethylene-rapamycin, -26-Dihydro-40-O-(2-hydroxy)ethyl-rapamycin, 28-O-Methyl-rapamycin, 40-O-(2-Aminoethyl)-rapamycin, 40-O-(2-Acetaminoethyl)-rapamycin, 40-O-(2-Nicotinamidoethyl)-rapamycin, 40-O-(2-(N-Methyl-imidazo-2'-ylcarbethoxamido)ethyl)-rapamycin, 40-O-(2-Ethoxycarbonylaminoethyl)-rapamycin, 40-O-(2-Tolylsulfonamidoethyl)-rapamycin, 40-O-[2-(4',5'-Dicarboethoxy-1',2',3'-triazol-1'-yl)-ethyl]-rapamycin, 42-Epi-(tetrazolyl)rapamycin (tacrolimus), 42-[3-hydroxy-2-(hydroxymethyl)-2-methylpropanoate]rapamycin (temsirolimus), -42-Deoxy-42-(1H-tetrazol-1-yl)-rapamycin (zotarolimus), and salts, isomers, racemates, diastereoisomers, hydrates, and esters thereof, wherein the polymer layers are prepared by applying a sintering step for each polymer layer; and wherein the pharmaceutical agent is present in crystalline form on at least one region of an outer surface of the coating opposite the stent and wherein 50% or less of the total amount of pharmaceutical agent in the coating is released after 24 hours in vitro elution. - first layer comprises a first bioabsorbable polymer, - a second layer comprises a pharmaceutical agent, - a third layer comprises a second bioabsorbable polymer, - a fourth layer comprises the pharmaceutical agent, and - a fifth layer comprises a third bioabsorbable polymer, wherein the first, second and third bioabsorbable polymer can be the same or different wherein
An HF module comprising two filter units, of which each comprises - a first HF filter (HF-F) with an input and an output (o), - a first switch with two possible switching states, wherein - in each filter unit, the first switch is connected to the input of the first HF filter (HF-F), and - the two filter units are connected in parallel; wherein to at least one filter unit, the following applies: - the filter unit comprises a second switch with two possible switching states, - the first switch is connected to the input, - the second switch is connected to the output (o), - the filter unit comprises a second filter (HF-F) with an input and an output (o), - the second filter (HF-F) is connected in parallel to the first filter (HF-F), - the filter unit implements a duplexer, wherein a common output of the duplexer is routed via the second switch, - the filter unit comprises a third switch with two possible switching states, - the third switch is connected to the input of the second filter (HF-F). - a first HF filter (HF-F) with an input and an output (o), - a first switch with two possible switching states, wherein - in each filter unit, the first switch is connected to the input of the first HF filter (HF-F), and - the two filter units are connected in parallel; wherein to at least one filter unit, the following applies: - the filter unit comprises a second switch with two possible switching states, - the first switch is connected to the input, - the second switch is connected to the output (o), - the filter unit comprises a second filter (HF-F) with an input and an output (o), - the second filter (HF-F) is connected in parallel to the first filter (HF-F), - the filter unit implements a duplexer, wherein a common output of the duplexer is routed via the second switch, - the filter unit comprises a third switch with two possible switching states, - the third switch is connected to the input of the second filter (HF-F). - the filter unit comprises a second switch with two possible switching states, - the first switch is connected to the input, - the second switch is connected to the output (o), - the filter unit comprises a second filter (HF-F) with an input and an output (o), - the second filter (HF-F) is connected in parallel to the first filter (HF-F), - the filter unit implements a duplexer, wherein a common output of the duplexer is routed via the second switch, - the filter unit comprises a third switch with two possible switching states, - the third switch is connected to the input of the second filter (HF-F).
A method for controlling movement of a robot comprising a plurality of links (51, 52) connected by rotatably driven joints (61, 62,..., 66), comprising the steps of a) defining a target speed vector ( x ̇ ref k) of a reference point of the robot in Cartesian space; b) determining rotation speeds ( q ̇ ref k) of the joints (61, 62,..., 66) which minimize a weighted sum, the weighted sum having for summands i) a discrepancy ( ‖ x ̇ ref k − J q ̇ ref k ‖ W x) between the target speed vector ( x ̇ ref k) and an actual speed vector ( x ̇ act k) calculated from actual rotation speeds of the joints; and ii) a rate of change ( 1 T S ‖ q ̇ ref k − q ̇ ref k − 1 ‖ W α) of an amount of the rotation speeds; and c) setting the rotation speeds ( q ̇ ref k) determined in step (b) as target rotation speeds of the joints. a) defining a target speed vector ( x ̇ ref k) of a reference point of the robot in Cartesian space; b) determining rotation speeds ( q ̇ ref k) of the joints (61, 62,..., 66) which minimize a weighted sum, the weighted sum having for summands i) a discrepancy ( ‖ x ̇ ref k − J q ̇ ref k ‖ W x) between the target speed vector ( x ̇ ref k) and an actual speed vector ( x ̇ act k) calculated from actual rotation speeds of the joints; and ii) a rate of change ( 1 T S ‖ q ̇ ref k − q ̇ ref k − 1 ‖ W α) of an amount of the rotation speeds; and i) a discrepancy ( ‖ x ̇ ref k − J q ̇ ref k ‖ W x) between the target speed vector ( x ̇ ref k) and an actual speed vector ( x ̇ act k) calculated from actual rotation speeds of the joints; and ii) a rate of change ( 1 T S ‖ q ̇ ref k − q ̇ ref k − 1 ‖ W α) of an amount of the rotation speeds; and c) setting the rotation speeds ( q ̇ ref k) determined in step (b) as target rotation speeds of the joints.
Method of controlling a high power electric motor of the order of megawatts, MW, of or associated with a shredding plant which is used for shredding very bulky and heavy objects and provided with rotating shredding means connected to the rotor of said electric motor, by means of a control apparatus which comprises electric power supply means associated with said electric motor to selectively power it with a voltage and a current so that said electric motor operates at a selected temperature (t°), supplies said power, rotates at a selected rotation speed (ω) and applies to said rotating shredding means a determinate torque necessary for shredding said objects, and a control circuit connected to said electric power supply means and configured to control said electric motor so that it selectively operates at said temperature (t°), supplies said power, rotates at said rotation speed (ω) and applies said torque to said rotating shredding means, characterized in that it comprises at least a first step in which said control circuit controls said electric motor so that it operates at least in a first operating mode, which provides a control at a constant rotation speed (ω), and a power limited by a set maximum power value (Pmax), and in that, upon reaching said maximum power value (Pmax), it provides to select the supply of said voltage and said current so that said electric motor can selectively operate in at least one of either a second operating mode which provides a control at constant power, and with a torque limited to a selected value greater than or equal to a nominal torque value, or a third operating mode, which provides a control at constant torque, and with a temperature (t°) of said electric motor limited to a selected value.
In a time division multiple access (TDMA) system having a plurality of timeslots, a method comprising the steps of: tuning to a frequency in the system; searching for a desired set of synchronization patterns on the frequency, each of at least two slots on the frequency out of n slots used on the frequency having a set of synchronization patterns that are mutually exclusive of each other, the desired set of synchronization patterns being mutually exclusive of other sets of synchronization patterns used in the system on the frequency, and each set comprising at least two different synchronization patterns as a function of a payload type; and if one of the synchronization patterns belonging to the desired set of synchronization patterns is detected on the frequency, synchronizing to a timeslot in which the synchronization pattern was detected and receiving information corresponding to the indicated payload type. tuning to a frequency in the system; searching for a desired set of synchronization patterns on the frequency, each of at least two slots on the frequency out of n slots used on the frequency having a set of synchronization patterns that are mutually exclusive of each other, the desired set of synchronization patterns being mutually exclusive of other sets of synchronization patterns used in the system on the frequency, and each set comprising at least two different synchronization patterns as a function of a payload type; and if one of the synchronization patterns belonging to the desired set of synchronization patterns is detected on the frequency, synchronizing to a timeslot in which the synchronization pattern was detected and receiving information corresponding to the indicated payload type.
A laser line generator system for generating an elongated homogenous line illumination pattern on an illumination plane, the system comprising: a plurality of diode lasers, each diode laser configured to emit coherent light having a slow-axis that is aligned in a slow-axis direction; and an optical system including: a light guide positioned to receive said coherent light generated by said plurality of diode lasers, and configured to mix said coherent light such that substantially homogenous light exits said light guide; at least one slow-axis relay lens positioned between the light guide and the illumination plane and configured to image said homogenized light exiting said light guide such that the homogenous light forms said homogenous line illumination pattern with an elongated line width extending in the slow-axis direction on said illumination plane, wherein said at least one slow-axis relay lens comprises a Keplerian telescope including a first slow-axis lens (130A-1) and a second slow-axis lens (130A-2) configured and arranged to project the homogenized light exiting the light guide onto the illumination plane, thereby generating said line illumination pattern. a plurality of diode lasers, each diode laser configured to emit coherent light having a slow-axis that is aligned in a slow-axis direction; and an optical system including: a light guide positioned to receive said coherent light generated by said plurality of diode lasers, and configured to mix said coherent light such that substantially homogenous light exits said light guide; at least one slow-axis relay lens positioned between the light guide and the illumination plane and configured to image said homogenized light exiting said light guide such that the homogenous light forms said homogenous line illumination pattern with an elongated line width extending in the slow-axis direction on said illumination plane, wherein said at least one slow-axis relay lens comprises a Keplerian telescope including a first slow-axis lens (130A-1) and a second slow-axis lens (130A-2) configured and arranged to project the homogenized light exiting the light guide onto the illumination plane, thereby generating said line illumination pattern. a light guide positioned to receive said coherent light generated by said plurality of diode lasers, and configured to mix said coherent light such that substantially homogenous light exits said light guide; at least one slow-axis relay lens positioned between the light guide and the illumination plane and configured to image said homogenized light exiting said light guide such that the homogenous light forms said homogenous line illumination pattern with an elongated line width extending in the slow-axis direction on said illumination plane, wherein said at least one slow-axis relay lens comprises a Keplerian telescope including a first slow-axis lens (130A-1) and a second slow-axis lens (130A-2) configured and arranged to project the homogenized light exiting the light guide onto the illumination plane, thereby generating said line illumination pattern.
A physical quantity sensor comprising: a substrate; a movable object that is oscillatably provided around a center of oscillation axis while facing the substrate and that is divided into a first movable portion and a second movable portion of which an area is larger than that of the first movable portion with the center of oscillation axis as a boundary in a plan view seen from a thickness direction of the substrate; a first electrode that is disposed on the substrate facing the first movable portion; and a second electrode that is disposed on the substrate facing the second movable portion, wherein the first electrode and the second electrode are configured so as to offset at least a part of a difference between a first fringe capacitance, which is between the first movable portion and the first electrode, and a second fringe capacitance, which is between the second movable portion and the second electrode, characterized in that each of lengths of the first electrode and the second electrode in a direction along the center of oscillation axis is longer than a length of the movable object. a substrate; a movable object that is oscillatably provided around a center of oscillation axis while facing the substrate and that is divided into a first movable portion and a second movable portion of which an area is larger than that of the first movable portion with the center of oscillation axis as a boundary in a plan view seen from a thickness direction of the substrate; a first electrode that is disposed on the substrate facing the first movable portion; and a second electrode that is disposed on the substrate facing the second movable portion, wherein the first electrode and the second electrode are configured so as to offset at least a part of a difference between a first fringe capacitance, which is between the first movable portion and the first electrode, and a second fringe capacitance, which is between the second movable portion and the second electrode, characterized in that each of lengths of the first electrode and the second electrode in a direction along the center of oscillation axis is longer than a length of the movable object.
A method of producing high-cleanliness steel, the method comprising: adding Si and then adding Al to molten steel in a converter to subject the molten steel to deoxidation treatment; performing ladle refining of adding CaO-containing flux to the molten steel and of subjecting the molten steel to desulfurization treatment using a ladle furnace; thereafter subjecting the molten steel to vacuum degassing treatment using a vacuum degasser; thereafter adding Ca-containing metal to the molten steel; and thereafter continuously casting the molten steel, wherein Si is not added to the molten steel in the ladle refining, or wherein in a case of adding additional Si for adjusting a chemical composition of the molten steel, the additional Si is added in a first half of a treatment period of the ladle refining and is not added in a latter half of the treatment period of the ladle refining and in a period of the vacuum degassing treatment, and wherein a Ca concentration in the molten steel after the vacuum degassing treatment and before the addition of the Ca-containing metal is 0.0004 mass% or less, and an addition amount of the Ca-containing metal is set to satisfy the following Formula: 1.00 ≤ % Ca − 0.18 + 130 × % Ca × % O / 1.25 / % S ≤ 2.00 where [%Ca], [%O], and [%S] are respective concentrations of elements Ca, O, and S in the molten steel in a tundish, in mass%. adding Si and then adding Al to molten steel in a converter to subject the molten steel to deoxidation treatment; performing ladle refining of adding CaO-containing flux to the molten steel and of subjecting the molten steel to desulfurization treatment using a ladle furnace; thereafter subjecting the molten steel to vacuum degassing treatment using a vacuum degasser; thereafter adding Ca-containing metal to the molten steel; and thereafter continuously casting the molten steel, wherein Si is not added to the molten steel in the ladle refining, or wherein in a case of adding additional Si for adjusting a chemical composition of the molten steel, the additional Si is added in a first half of a treatment period of the ladle refining and is not added in a latter half of the treatment period of the ladle refining and in a period of the vacuum degassing treatment, and wherein a Ca concentration in the molten steel after the vacuum degassing treatment and before the addition of the Ca-containing metal is 0.0004 mass% or less, and an addition amount of the Ca-containing metal is set to satisfy the following Formula: 1.00 ≤ % Ca − 0.18 + 130 × % Ca × % O / 1.25 / % S ≤ 2.00 where [%Ca], [%O], and [%S] are respective concentrations of elements Ca, O, and S in the molten steel in a tundish, in mass%.
A thermally conductive adhesive sheet (1, 1A, 1B) comprising: a base material comprising a high thermally conductive portion (4, 4a, 4b) and a low thermally conductive portion (5, 5a, 5b), and an adhesive layer, wherein the adhesive layer is laminated on one face of the base material; and the other face of the base material is composed of a face of the low thermally conductive portion opposite to a face in contact with the adhesive layer and a face of the high thermally conductive portion opposite to a face in contact with the adhesive layer, or at least either the high thermally conductive portion or the low thermally conductive portion constitutes a portion of a thickness of the base material, characterized in that the high thermally conductive portion and the low thermally conductive portion are each formed of a resin composition, and in that the resin composition constituting the high thermally conductive portion comprises a thermally conductive filler and/or an electrically conductive carbon compound. a base material comprising a high thermally conductive portion (4, 4a, 4b) and a low thermally conductive portion (5, 5a, 5b), and an adhesive layer, wherein the adhesive layer is laminated on one face of the base material; and the other face of the base material is composed of a face of the low thermally conductive portion opposite to a face in contact with the adhesive layer and a face of the high thermally conductive portion opposite to a face in contact with the adhesive layer, or at least either the high thermally conductive portion or the low thermally conductive portion constitutes a portion of a thickness of the base material,
A method of optimizing the positioning of a head-up display in the driving cab of a vehicle, the head-up display comprising a housing, the housing comprising a projector adapted to project images and a slide adapted to display the images projected by the projector, characterized in that the slide protruding from the housing, the slide having a base, the driving cab including a front end, the vehicle defining an exterior space, the method comprising the steps of: - providing first data on: • the dimensions of an element positioned in the exterior space of the vehicle in the longitudinal extension of the front end of the driving cab, • the distance (Do) of the element from the front end of the driving cab, - providing second data on the dimensions of a first driver model and on the driving posture of said first driver model in the driving cab, the first driver model having eyes, - determining a first position from the first data, the first position being the position of a point on the element, - determining a second position from the second data, the second position being the position of a midpoint between the eyes of the first driver model when said first driver model is in a driving posture in the driving cab, the first position and the second position defining a first line (D 1), and - determining a first criterion for optimizing the positioning of the display in the driving cab, the first criterion stipulating that the housing is below the first straight line (D 1) and that the first straight line (D 1) intersects the slide, preferably the base of the slide. - providing first data on: • the dimensions of an element positioned in the exterior space of the vehicle in the longitudinal extension of the front end of the driving cab, • the distance (Do) of the element from the front end of the driving cab, • the dimensions of an element positioned in the exterior space of the vehicle in the longitudinal extension of the front end of the driving cab, • the distance (Do) of the element from the front end of the driving cab, - providing second data on the dimensions of a first driver model and on the driving posture of said first driver model in the driving cab, the first driver model having eyes, - determining a first position from the first data, the first position being the position of a point on the element, - determining a second position from the second data, the second position being the position of a midpoint between the eyes of the first driver model when said first driver model is in a driving posture in the driving cab, the first position and the second position defining a first line (D 1), and - determining a first criterion for optimizing the positioning of the display in the driving cab, the first criterion stipulating that the housing is below the first straight line (D 1) and that the first straight line (D 1) intersects the slide, preferably the base of the slide.
Switching device for switching on or off a consumer, in particular an engine in a vehicle, having a housing, an actuating element, a switching element and a display, wherein the display is arranged on the actuating element, the switching element can be activated by the actuating element, at least one switching signal for a control unit (15, 15') can be generated by means of the switching element, the switching element being a piezo switch, the piezo switch being arranged in such a way that it receives the switching signal on insertion of the actuating element into the housing, wherein the actuating element and the display are both integrally formed, wherein the switching element is formed like a foil, the switching element being arranged between the housing and the display, the display being connected via a bus system to at least one information source, the bus system serving for an uni and/or bidirectional exchange of at least one piece of information between the display and the information source, the information being displayable on the display, wherein a state of the vehicle can be indicated on the display, wherein a starting and/or stopping readiness (82, 82') of the engine can be indicated on the display.