mhurhangee/ep-ind-claims huggingface dataset:
Base oil fulfilling the API Group III base oil specifications, having ≥ 90 wt% saturated hydrocarbons, ≤ 0.03 wt% sulfur and a viscosity index of ≥ 120, characterized in that the base oil comprises branched hydrocarbons having carbon numbers of at least C18, and it contains at least 90 % by weight of saturated hydrocarbons, the saturated hydrocarbons consisting of paraffinic and naphthenic compounds and contains based on the FIMS analysis mononaphthenes more than 5 - 20 % by weight and fused dinaphthenes and polynaphthenes not more than 1 % by weight; and at least 50 % by weight of the saturated hydrocarbons having a width of the carbon number range of no more than 3; and the distillation range of the base oil being no more than 100 °C, determined by the method of ASTM D 2887, distillation points D10 and D90, and in that the 14 C isotope content of the total carbon content in base oil is at least 50 %, on the basis of radioactive carbon content in the atmosphere in the year 1950 according to ASTM D 6866.
A frictional vibration damper for washing machines said damper comprising a piston body and a piston rod adapted to move telescopically along the primary axis of said piston body, a friction element located in between said piston rod and said piston body such that friction occurs when said piston moves with respect to said body, said piston rod and piston body respectively having a joint at one ends, characterized in that said piston rod is formed by a carrier piece around which a tubular body is crimped.
Modular sound-absorbing panel, comprising a tubular jacket, formed by a single body in plastic material, that defines a compartment for accommodating sound-absorbing material, inside the tubular jacket being defined longitudinal (19, 20, 21, 22, 23, 24), angular (19, 20, 21, 22) and central (23, 24) reinforcement portions, which develop in a direction transversing the thickness of the panel and comprise a plurality of longitudinal ribs (31, 32, 33, 34) defining a plurality of longitudinal cells (35, 36, 37, 38), characterized in that the minimum distance along said transversing direction between two opposite angular reinforcing portions (19, 20, 21, 22) essentially corresponds to the thickness of the sound-absorbing material. develop in a direction transversing the thickness of the panel and comprise a plurality of longitudinal ribs (31, 32, 33, 34) defining a plurality of longitudinal cells (35, 36, 37, 38),
A piece of cabinet furniture, comprising a furniture body, a flap hinge and a drive device for the flap hinge, a housing which can be fixed to the furniture body and in which an electric motor is provided, which drives a coupling element connected to a fitting part via a gearing, wherein the coupling element is centrally arranged in the housing in a direction perpendicular to the plane of motion of the fitting part, and the drive device can be mounted on opposite sides of the furniture body for driving the flap hinge, wherein the coupling element is arranged as a lever which reaches through a central slot in the housing.
Shelf box having at least two first locking stops (3, 4) arranged on a side wall of the shelf box, in that wherein the first locking stops (3, 4) are arranged in the upper third of the side wall, characterised in that it has on each of its side walls additionally at least two second locking stops (7, 8) which are arranged in the lower third of the side wall.
A method for optimizing the placement of smart-home devices (102, 104, 106, 108, 110, 112, 114, 116, 118, 120, 122), the method comprising: receiving, by a mobile computing device (166, 166-1, 166-2), a location for a smart-home device (102, 104, 106, 108, 110, 112, 114, 116, 118, 120, 122), comprising determining a relative location of the smart-home device (102, 104, 106, 108, 110, 112, 114, 116, 118, 120, 122) based on a location and/or movement of the mobile computing device (166, 166-1, 166-2), wherein the mobile computing device (166, 166-1, 166-2) comprises a display and a camera; rendering, by the mobile computing device (166, 166-1, 166-2), a view of a virtual object that represents a field-of-view (404, 504, 604, 704, 806, 1004, 1102, 1202, 1302, 1504, 1604, 1712, 1724) of the smart-home device (102, 104, 106, 108, 110, 112, 114, 116, 118, 120, 122), wherein the view of the virtual object is rendered based on a position corresponding to a position of the mobile computing device (166, 166-1, 166-2); and displaying, by the mobile computing device (166, 166-1, 166-2), the view of a virtual object that represents a field-of-view (404, 504, 604, 704, 806, 1004, 1102, 1202, 1302, 1504, 1604, 1712, 1724) of the smart-home device (102, 104, 106, 108, 110, 112, 114, 116, 118, 120, 122) on the display of the mobile computing device (166, 166-1, 166-2). receiving, by a mobile computing device (166, 166-1, 166-2), a location for a smart-home device (102, 104, 106, 108, 110, 112, 114, 116, 118, 120, 122), comprising determining a relative location of the smart-home device (102, 104, 106, 108, 110, 112, 114, 116, 118, 120, 122) based on a location and/or movement of the mobile computing device (166, 166-1, 166-2), wherein the mobile computing device (166, 166-1, 166-2) comprises a display and a camera; rendering, by the mobile computing device (166, 166-1, 166-2), a view of a virtual object that represents a field-of-view (404, 504, 604, 704, 806, 1004, 1102, 1202, 1302, 1504, 1604, 1712, 1724) of the smart-home device (102, 104, 106, 108, 110, 112, 114, 116, 118, 120, 122), wherein the view of the virtual object is rendered based on a position corresponding to a position of the mobile computing device (166, 166-1, 166-2); and displaying, by the mobile computing device (166, 166-1, 166-2), the view of a virtual object that represents a field-of-view (404, 504, 604, 704, 806, 1004, 1102, 1202, 1302, 1504, 1604, 1712, 1724) of the smart-home device (102, 104, 106, 108, 110, 112, 114, 116, 118, 120, 122) on the display of the mobile computing device (166, 166-1, 166-2).
A playback control apparatus comprising: a playback controller configured to control playback of first content and second content, the first content being used to output first sound which is generated based on text information using speech synthesis processing, the second content being used to output second sound which is generated not using the speech synthesis processing, wherein the playback controller causes an attribute of content to be played back to be displayed on a screen, the attribute indicating whether or not the content is to output sound which is generated based on text information using speech synthesis processing. a playback controller configured to control playback of first content and second content, the first content being used to output first sound which is generated based on text information using speech synthesis processing, the second content being used to output second sound which is generated not using the speech synthesis processing, wherein the playback controller causes an attribute of content to be played back to be displayed on a screen, the attribute indicating whether or not the content is to output sound which is generated based on text information using speech synthesis processing.
An elevator system comprising: a component; an elevator vandalism monitoring system for determining an act of vandalism upon the component, the elevator vandalism monitoring system comprising: a sensor configured to monitor a detectable parameter associated with the component, and output a detectable parameter signal; at least one processor (78, 80) configured to receive the detectable parameter signal; at least one electronic storage medium; a model stored in the at least one electronic storage medium; and a vandalism comparison module executed by the at least one processor (78, 80), characterised in that the model is associated with expected feature values associated with the component as a function of time, and the vandalism comparison module is configured to generally compare the model to actual feature values extracted from the detectable parameter signal for determining if the parameter anomaly exists; and the elevator system further comprises a health monitoring system configured to be at least in-part executed by the at least one processor (78, 80), receive the parameter signal, extract the actual feature values from the parameter signal, and apply machine learning to determine a degradation level of the component associated with the actual feature values to develop the model. a component; an elevator vandalism monitoring system for determining an act of vandalism upon the component, the elevator vandalism monitoring system comprising: a sensor configured to monitor a detectable parameter associated with the component, and output a detectable parameter signal; at least one processor (78, 80) configured to receive the detectable parameter signal; at least one electronic storage medium; a model stored in the at least one electronic storage medium; and a vandalism comparison module executed by the at least one processor (78, 80), a sensor configured to monitor a detectable parameter associated with the component, and output a detectable parameter signal; at least one processor (78, 80) configured to receive the detectable parameter signal; at least one electronic storage medium; a model stored in the at least one electronic storage medium; and a vandalism comparison module executed by the at least one processor (78, 80), characterised in that the model is associated with expected feature values associated with the component as a function of time, and the vandalism comparison module is configured to generally compare the model to actual feature values extracted from the detectable parameter signal for determining if the parameter anomaly exists; and the elevator system further comprises a health monitoring system configured to be at least in-part executed by the at least one processor (78, 80), receive the parameter signal, extract the actual feature values from the parameter signal, and apply machine learning to determine a degradation level of the component associated with the actual feature values to develop the model.
A panel as a construction element comprising two parallel skin plates made of wood or a wood material, between which ribs extend for stiffening the panel, characterised in that the ribs are made of MDF and extend the same distance at the side of one of the skin plates and extend the same distance at the side of the other skin plate, wherein the ribs have a thickness of 0.5 to 2 mm, wherein the ribs are attached to the skin plates, wherein the ribs are glued to the skin plates, and wherein a fibre mat is provided between the ribs and the skin plates for stiffening purposes, wherein the ribs jointly form a pattern of squares, and wherein the ribs are provided with equally spaced notches, via which the ribs are interlocked in a fixed orientation with respect to each other, in which crosswise, interlocked orientation the ribs are spaced a fixed distance apart.
A method for stabilizing the rotation speed of a hydraulic machine in turbine mode, the machine comprising a distributor adapted to modify a water flow, wherein the method comprises the steps of: - calculating a speed difference (ε) between the rotational speed of the hydraulic machine and a target rotational speed (N_sp), processing said speed difference (ε) to output an orientation (γ) of the distributor; - orienting the distributor according to said orientation (γ); and - processing said speed difference (ε) by an electric torque controller to output an electric torque and applying said electric torque (Telec) to the machine, wherein the method comprises a step of coupling the hydraulic machine to a grid, which step comprises opening an electric torque circuit breaker between the source of the electric torque and the machine. - calculating a speed difference (ε) between the rotational speed of the hydraulic machine and a target rotational speed (N_sp), processing said speed difference (ε) to output an orientation (γ) of the distributor; - orienting the distributor according to said orientation (γ); and - processing said speed difference (ε) by an electric torque controller to output an electric torque and applying said electric torque (Telec) to the machine, wherein the method comprises a step of coupling the hydraulic machine to a grid, which step comprises opening an electric torque circuit breaker between the source of the electric torque and the machine.
An array substrate comprising: a display area and a non-display area located outside the display area, wherein the non-display area comprises: a substrate; a buffer layer disposed on the substrate; a first insulating layer disposed on the buffer layer; a second insulating layer disposed on the first insulating layer, wherein at least one of the first insulating layer and the second insulating layer comprises an inorganic layer; and a plurality of wiring patterns disposed on the first and second insulating players, wherein the wiring patterns are separated from each other and each of the wiring patterns comprises a wiring line (401, 411) disposed on the first insulating layer and extending toward a side of the substrate; the non-display area of the array substrate further comprising a recess pattern (500, 501, 503, 504, 507, 508) disposed between adjacent wiring lines and wherein the recess pattern penetrates through the inorganic layers among the first insulating layer, the second insulating layer and the buffer layer. a display area and a non-display area located outside the display area, wherein the non-display area comprises: a substrate; a buffer layer disposed on the substrate; a first insulating layer disposed on the buffer layer; a second insulating layer disposed on the first insulating layer, wherein at least one of the first insulating layer and the second insulating layer comprises an inorganic layer; and a plurality of wiring patterns disposed on the first and second insulating players, a substrate; a buffer layer disposed on the substrate; a first insulating layer disposed on the buffer layer; a second insulating layer disposed on the first insulating layer, wherein at least one of the first insulating layer and the second insulating layer comprises an inorganic layer; and a plurality of wiring patterns disposed on the first and second insulating players, wherein the wiring patterns are separated from each other and each of the wiring patterns comprises a wiring line (401, 411) disposed on the first insulating layer and extending toward a side of the substrate; the non-display area of the array substrate further comprising a recess pattern (500, 501, 503, 504, 507, 508) disposed between adjacent wiring lines and wherein the recess pattern penetrates through the inorganic layers among the first insulating layer, the second insulating layer and the buffer layer.
A method for retrofitting a window by combining the window with a switchable window enhancement, the method comprising: providing a window comprising a relatively transparent viewing pane, said viewing pane having first and second opposed viewing surfaces; providing at least one mounting means adapted for securing a switchable window enhancement to said window while being entirely positioned in-between said pane and said window enhancement; and securing a switchable window enhancement to said window with said at least one mounting means such that the switchable enhancement overlies at least a portion of said viewing pane, and wherein a gap is produced due to the mounting means between the pane and the switchable enhancement in areas where the switchable enhancement is not in contact with the at least one mounting means. providing a window comprising a relatively transparent viewing pane, said viewing pane having first and second opposed viewing surfaces; providing at least one mounting means adapted for securing a switchable window enhancement to said window while being entirely positioned in-between said pane and said window enhancement; and securing a switchable window enhancement to said window with said at least one mounting means such that the switchable enhancement overlies at least a portion of said viewing pane, and wherein a gap is produced due to the mounting means between the pane and the switchable enhancement in areas where the switchable enhancement is not in contact with the at least one mounting means.
A process for producing tubular ceramic structures which comprises: (a) rotating a mandrel-spindle assembly comprising a mandrel component and a spindle component, the mandrel component being a heat shrinkable polymeric tube the external surface of which corresponds to the internal surface of the tubular ceramic structure to be produced and the internal surface of which defines a bore, the spindle component being in close fitting but slidably removable contact therewith; (b) applying a ceramic-forming composition to the external surface of the mandrel component of the rotating mandrel-spindle assembly to produce a tubular ceramic structure the internal surface of which is in contact with the external surface of the mandrel component; (c) removing the spindle component from the bore of the mandrel component to provide a mandrel- tubular ceramic structure assembly in which the interior surface of the tubular ceramic structure remains in contact with the external surface of the mandrel component; and, (d) heat shrinking the mandrel component of the mandrel-tubular ceramic structure assembly to cause the mandrel component to undergo shrinkage to a reduced size in which the external surface of the mandrel component separates from the interior surface of the tubular ceramic structure facilitating removal of the mandrel component therefrom. (a) rotating a mandrel-spindle assembly comprising a mandrel component and a spindle component, the mandrel component being a heat shrinkable polymeric tube the external surface of which corresponds to the internal surface of the tubular ceramic structure to be produced and the internal surface of which defines a bore, the spindle component being in close fitting but slidably removable contact therewith; (b) applying a ceramic-forming composition to the external surface of the mandrel component of the rotating mandrel-spindle assembly to produce a tubular ceramic structure the internal surface of which is in contact with the external surface of the mandrel component; (c) removing the spindle component from the bore of the mandrel component to provide a mandrel- tubular ceramic structure assembly in which the interior surface of the tubular ceramic structure remains in contact with the external surface of the mandrel component; and, (d) heat shrinking the mandrel component of the mandrel-tubular ceramic structure assembly to cause the mandrel component to undergo shrinkage to a reduced size in which the external surface of the mandrel component separates from the interior surface of the tubular ceramic structure facilitating removal of the mandrel component therefrom.
A banner system adapted to enable two or more banner systems to be assembled together comprising a roller mounted within a base unit,, and a banner releasably rolled around the roller wherein the length of the roller is less than the length of the base unit characterised in that the base unit is provided with protrusions, on both ends, the protrusion on a first end being shaped so that it can receive the protrusion on the other end of the a second banner system, whereby the ends of the base units interlock, once the presentations are unrolled and fully extended and the width of the banner is such that in their presentation position with the base units interlocked there is no gap between the edges of adjacent banners and the edges are touching.
Test device for calibrating an analysis device for analysis of light appearances (13, 44) created by an RF surgical instrument, wherein the test device comprises a test object, wherein the test object is configured for creation of a plasma test light appearance, the light of which can be received by a light receiving unit, and wherein the test device is configured to determine a calibration of the analysis device from specific light features of the test light appearance.
Method for controlling a technical process embedded in a changing environment, wherein the electronic system performing the controlling comprises sensors, in particular a plurality of sensors, actuators, and node computers, in particular a plurality of node computers exchanging data via a real-time communication system, characterised in that a distinction is made between complex and simple software, wherein for a complex software, the probability of design errors occurring corresponds to ASIL B, according to ISO 26262, and wherein for a simple software, an error rate as required by ASIL D, according to ISO 26262, is attained, and wherein the complex software is executed simultaneously on at least two independent data flow paths (110, 120), DFP, wherein each data flow path cyclically monitors the technical process and its environment with sensors, and builds a model of the technical process and its environment from input data in the form of observed data, that is sensor data resulting from cyclic monitoring the technical process and its environment, using algorithms, and carries out trajectory planning in order to create one or more possible trajectories which correspond to the predetermined objective under the given environmental conditions, wherein the data flow paths are run through cyclically and the sensors are read out cyclically, and wherein - the cyclically read sensor data are diverse, i.e. different, and the algorithms used in the DFP are diverse, or - the cyclically read sensor data are not diverse, i.e. not different, and the algorithms used in the DFP are diverse, or - the cyclically read sensor data are diverse and the algorithms used in the DFP are not diverse, and wherein said trajectories generated by the DFPs are delivered to a decision instance for decision, wherein the decision instance is realised using a simple software, and wherein the decision instance selects a trajectory, and where the decision instance delivers the selected trajectory to an actuator controller, and where the decision instance is executed on fault-tolerant hardware. - the cyclically read sensor data are diverse, i.e. different, and the algorithms used in the DFP are diverse, or - the cyclically read sensor data are not diverse, i.e. not different, and the algorithms used in the DFP are diverse, or - the cyclically read sensor data are diverse and the algorithms used in the DFP are not diverse,