mhurhangee/patent-ind-claim-en huggingface dataset:
Textile hose for encasing elongated objects, comprising the following features: a) a radially elastic outer layer made from wear-resistant material and b) at least one inner layer made from thermally insulating material, characterised in that the outer layer and the at least one inner layer are joined together in places by a textile binding , by sewing or by bonding and the outer layer and the at least one inner layer are joined together along zones extending axially, the zones being spaced apart from one another. a) a radially elastic outer layer made from wear-resistant material and b) at least one inner layer made from thermally insulating material, characterised in that the outer layer and the at least one inner layer are joined together in places by a textile binding , by sewing or by bonding and the outer layer and the at least one inner layer are joined together along zones extending axially, the zones being spaced apart from one another.
A crop processing roll for use in a forage harvester to crack corn kernels in crop material comminuted by the operation of the forage harvester before being discharged from the forage harvester , comprising: an elongate cylindrical body adapted for rotation about an axis, with the cylindrical outer surface having formed therein a set of first grooves extending generally lengthways of the cylindrical body, said first grooves forming ridges therebetween, and a set of second grooves formed in the cylindrical outer surface and extending in a direction to intersect said first grooves and pass through said ridges , thereby breaking said ridges into discrete teeth, characterised in that said set of second grooves comprises oppositely oriented helical grooves extending from respective axial ends of the crop processing roll toward an intermediate plane spaced from the axial ends of the crop processing roll, whereby the teeth defined by the intersecting first and second grooves are oriented in a manner to urge the crop material engaged by said crop processing roll toward said intermediate plane and thereby prevent crop from migrating toward either one of the axial ends of said crop processing roll . an elongate cylindrical body adapted for rotation about an axis, with the cylindrical outer surface having formed therein a set of first grooves extending generally lengthways of the cylindrical body, said first grooves forming ridges therebetween, and a set of second grooves formed in the cylindrical outer surface and extending in a direction to intersect said first grooves and pass through said ridges , thereby breaking said ridges into discrete teeth, characterised in that said set of second grooves comprises oppositely oriented helical grooves extending from respective axial ends of the crop processing roll toward an intermediate plane spaced from the axial ends of the crop processing roll, whereby the teeth defined by the intersecting first and second grooves are oriented in a manner to urge the crop material engaged by said crop processing roll toward said intermediate plane and thereby prevent crop from migrating toward either one of the axial ends of said crop processing roll .
A method of managing an electrical distribution system for a healthcare facility having electrical loads that include critical loads requiring highly reliable power delivery, a main utility power source for supplying power to said loads via said electrical distribution system, and an alternate power source for supplying power to at least certain of the loads in the event of disruption of power from the main utility source, said method comprising: receiving , over a communications network, information regarding the delivery of power to said loads from said main utility power source, said information including the occurrence of trip conditions that interrupt the delivery of power to identified loads; transmitting , over said communications network, an alarm when a trip condition occurs so that action can be taken to resume the delivery of power to loads to which power delivery has been interrupted, said alarm being transmitted to at least communication stations associated with said critical loads; instructing , over said communications network, an automatic transfer switch to couple said alternate power source to said loads to which power delivery has been interrupted, if the delivery of power to such loads is not restored within a preset time period; storing and periodically evaluating information regarding the occurrences of trip conditions and uses of said alternate power source by load, and transmitting , over said communications network, an alert when said evaluation identifies a performance change for any load; initiating a maintenance action in response to said alert; and communicating said alert to a remote facilities management station in the format of diagnostic information in real time. receiving , over a communications network, information regarding the delivery of power to said loads from said main utility power source, said information including the occurrence of trip conditions that interrupt the delivery of power to identified loads; transmitting , over said communications network, an alarm when a trip condition occurs so that action can be taken to resume the delivery of power to loads to which power delivery has been interrupted, said alarm being transmitted to at least communication stations associated with said critical loads; instructing , over said communications network, an automatic transfer switch to couple said alternate power source to said loads to which power delivery has been interrupted, if the delivery of power to such loads is not restored within a preset time period; storing and periodically evaluating information regarding the occurrences of trip conditions and uses of said alternate power source by load, and transmitting , over said communications network, an alert when said evaluation identifies a performance change for any load; initiating a maintenance action in response to said alert; and communicating said alert to a remote facilities management station in the format of diagnostic information in real time.
An inner diameter measuring device, having a non-contact measuring unit and a contact measuring unit arranged so as to be connected or disconnected from each other along the same center line , wherein said non-contact measuring unit comprises an image pickup unit arranged on said center line, a laser beam emitting unit , and a laser beam diffusing unit having a cone mirror , wherein a laser beam projected from said laser beam emitting unit to said cone mirror is reflected over a total circumference by said cone mirror, said image pickup unit takes an optical ring which is formed by projecting the reflected laser beam to an inner surface of a hollow portion, at least one of an inner diameter or a shape of the inner surface is measured based on an image picked up, and wherein said contact measuring unit comprises a contact measuring head and a circulation unit for circulating said contact measuring head around said center line, wherein said contact measuring head has a contact measuring unit having a contact at a forward end and for detecting a displacement of said contact, an advancing/retreating unit for advancing and retreating said contact measuring unit in radial direction, and a scale unit for measuring an advancing/retreating distance of said contact measuring unit, wherein said non-contact measuring unit is connected to a rod-like supporting member , said non-contact measuring unit and said contact measuring unit is supported by said supporting member and inserted to a hollow object to be measured on a non-contact basis and is moved in an axial direction.
Miniaturised integrated device suitable for deploying substances into the inner tissue of leaves (F) of plants, said device comprising one or more anchoring micro-elements made of a soluble material, characterised in that it includes electronic components comprising sensors for monitoring the effect of the substances deployed into the plant.
Adaptive cruise controller for a motor vehicle , comprising a detection module for detecting a lead vehicle, a formulation module able to formulate a setpoint, a storage module configured to store a value corresponding to the setpoint, a chronometer configured to be initialized and actuated at an instant of stopping of the vehicle, and a reinitialization module for reinitializing the storage module , characterized in that it comprises an establishment module able to determine a limit (LIM) as a function of an environment of the vehicle , the reinitialization module being configured to reinitialize the value stored by the storage module if the chronometer delivers a duration (t) greater than the limit (LIM).
A method of generating a virtual view of a scene captured by a network of cameras comprising: obtaining captured images of the scene captured by the plurality of cameras of the network; determining, using the captured images, a model of atmospheric conditions in the scene; specifying a virtual viewpoint relative to the scene; and rendering a virtual viewpoint image of the scene viewed from the virtual viewpoint by adjusting pixels of the captured images, the adjusting based on a three-dimensional model of an object included in the scene, locations of the plurality of cameras relative to the scene, the virtual viewpoint, and the model of atmospheric conditions, wherein rendering the virtual viewpoint image comprises decreasing, based on the model of atmospheric conditions, visibility of the object in the rendered virtual viewpoint image compared to the captured images. obtaining captured images of the scene captured by the plurality of cameras of the network; determining, using the captured images, a model of atmospheric conditions in the scene; specifying a virtual viewpoint relative to the scene; and rendering a virtual viewpoint image of the scene viewed from the virtual viewpoint by adjusting pixels of the captured images, the adjusting based on a three-dimensional model of an object included in the scene, locations of the plurality of cameras relative to the scene, the virtual viewpoint, and the model of atmospheric conditions,
A system for generating a 3D path from a source to a destination for an aerial vehicle (AV), the system comprising: - a managing unit configured to select a group of altitude layers, wherein the group comprises an initial altitude layer comprising the source and a final altitude layer comprising the destination; the managing unit further configured to generate a 2D horizontal scenario by identifying constraints to avoid within a range at each selected altitude layer; - a path computing unit configured to determine whether one or more constraints are common for the selected altitude layers of the generated 2D horizontal scenario and to compute a 2D lateral path avoiding said one or more common constraints of the generated 2D horizontal scenario; - the managing unit further configured to generate a 2D vertical scenario based on a projection of the previously computed 2D lateral path onto the constraints at the selected altitude layers; - the path computing unit further configured to compute a 2D vertical path avoiding constraints of the generated 2D vertical scenario; - the managing unit configured to compose 3D waypoints of a conflict-free 3D path according to the 2D lateral path and 2D vertical path. - a managing unit configured to select a group of altitude layers, wherein the group comprises an initial altitude layer comprising the source and a final altitude layer comprising the destination; the managing unit further configured to generate a 2D horizontal scenario by identifying constraints to avoid within a range at each selected altitude layer; - a path computing unit configured to determine whether one or more constraints are common for the selected altitude layers of the generated 2D horizontal scenario and to compute a 2D lateral path avoiding said one or more common constraints of the generated 2D horizontal scenario; - the managing unit further configured to generate a 2D vertical scenario based on a projection of the previously computed 2D lateral path onto the constraints at the selected altitude layers; - the path computing unit further configured to compute a 2D vertical path avoiding constraints of the generated 2D vertical scenario; - the managing unit configured to compose 3D waypoints of a conflict-free 3D path according to the 2D lateral path and 2D vertical path.
A coating lance for a plasma process, the lance comprising a plasma shaft, a plasma neck and a plasma head, the plasma shaft comprising a longitudinal channel, which extends in an axial direction along an axis from a first shaft end to a second shaft end, the plasma neck comprising a shaft attachment and a head attachment and at least one neck channel, which extends from the shaft attachment to the head attachment and the shaft attachment is arranged at the second shaft end in such a way that the longitudinal channel opens into the at least one neck channel, the plasma head comprising a neck attachment, a plasma opening and at least one head channel, which extends from the neck attachment to the plasma opening and the neck attachment of the plasma head is arranged at the head attachment of the plasma neck in such a way that the at least one neck channel opens into the head channel, characterized in that the course of the plasma channel deviates from the axis in such a way that the neck channel does not open into the head channel centered with respect to the axis, i.e. offset with respect to the axis.
A lithium secondary battery, comprising: a negative electrode; a positive electrode; a separator; and an electrolyte, wherein the negative electrode comprises: a current collector; a negative electrode active material layer comprising a negative electrode active material, disposed on the current collector; a first layer disposed on the negative electrode active material layer, which first layer comprises lithium; and a second layer disposed on the first layer, which second layer comprises an inorganic material, wherein a total irreversible capacity of the positive electrode is greater than a total irreversible capacity of the negative electrode while the lithium secondary battery satisfies Equation 1, and a relative potential of the negative electrode with respect to lithium metal in an operating voltage range of the lithium secondary battery is in a range of -0.1 V to 0.7 V: 150 < negative electrode discharge capacity/lithium secondary battery discharge capacity × 100 < 300 wherein, the negative electrode discharge capacity is a value measured by preparing a coin half-cell which includes the negative electrode, as a positive electrode, and the lithium metal as a negative electrode. a negative electrode; a positive electrode; a separator; and an electrolyte, wherein the negative electrode comprises: a current collector; a negative electrode active material layer comprising a negative electrode active material, disposed on the current collector; a first layer disposed on the negative electrode active material layer, which first layer comprises lithium; and a second layer disposed on the first layer, which second layer comprises an inorganic material, a current collector; a negative electrode active material layer comprising a negative electrode active material, disposed on the current collector; a first layer disposed on the negative electrode active material layer, which first layer comprises lithium; and a second layer disposed on the first layer, which second layer comprises an inorganic material, wherein a total irreversible capacity of the positive electrode is greater than a total irreversible capacity of the negative electrode while the lithium secondary battery satisfies Equation 1, and a relative potential of the negative electrode with respect to lithium metal in an operating voltage range of the lithium secondary battery is in a range of -0.1 V to 0.7 V: 150 < negative electrode discharge capacity/lithium secondary battery discharge capacity × 100 < 300 wherein, the negative electrode discharge capacity is a value measured by preparing a coin half-cell which includes the negative electrode, as a positive electrode, and the lithium metal as a negative electrode.
A device for carrying out interventions on an electrical transmission or distribution line assembly (L), comprising a self-propelled lifting machine for lifting a mobile end support relative to a lower base of the machine , at least one robot arm , which is provided with tools for remote-controlled execution of a given task on the line assembly (L) and which is attached to the support , characterised in that the robot arm is attached to a platform that is respectively attached to at least two electrically insulating tubes located at a distance from one another and facing each other, a portion of the electrically insulating tubes being attached to the end support of the self-propelled lifting machine , the device comprises at least one first robot arm and at least one second robot arm , which are provided with the tools for remote-controlled execution of a given task on the electrical transmission line assembly (L) and which are attached to the support , the first robot arm and the second robot arm are respectively attached to a left platform and to a right platform , which are respectively attached to a left side and a right side of the at least two electrically insulating tubes , the left sides of the electrically insulating tubes being located distant from one another and facing each other, the right sides of the electrically insulating tubes being located distant from one another and facing each other, the left side of each electrically insulating tube being connected to its right side by a middle portion of this electrically insulating tube and being distant from its right side , the middle portions of the electrically insulating tubes being attached to the end support of the self-propelled lifting machine . the robot arm is attached to a platform that is respectively attached to at least two electrically insulating tubes located at a distance from one another and facing each other, a portion of the electrically insulating tubes being attached to the end support of the self-propelled lifting machine , the device comprises at least one first robot arm and at least one second robot arm , which are provided with the tools for remote-controlled execution of a given task on the electrical transmission line assembly (L) and which are attached to the support , the first robot arm and the second robot arm are respectively attached to a left platform and to a right platform , which are respectively attached to a left side and a right side of the at least two electrically insulating tubes , the left sides of the electrically insulating tubes being located distant from one another and facing each other, the right sides of the electrically insulating tubes being located distant from one another and facing each other, the left side of each electrically insulating tube being connected to its right side by a middle portion of this electrically insulating tube and being distant from its right side , the middle portions of the electrically insulating tubes being attached to the end support of the self-propelled lifting machine .
Electric hand-held power tool , in particular hammer drill or chipping hammer, having an impact-mechanism assembly , which vibrates along a vibration axis (A), and a handle assembly , which is decoupled in terms of vibration via an anti-vibration unit , wherein the anti-vibration unit has a coil spring with multiple windings, which is oriented along the vibration axis (A), characterized in that the coil spring is in the form of a cylindrically progressive compression spring having two stiffness regions (S1, S2) with different stiffnesses, wherein the coil spring provided in the form of a cylindrically progressive compression spring is of progressive form on both sides and has a third stiffness region (S3), wherein the third stiffness region (S3) has the same stiffness as the first stiffness region (S1), which has the lower stiffness, wherein the stiffness region (S2) with the higher stiffness is situated, along the vibration axis (A), between the stiffness regions (S1, S3) with the in each case lower stiffness.
A respiratory apparatus , comprising: a first gas inlet for supplying a first gas to the respiratory apparatus ; a second gas inlet connectable to a pressurized gas source to supply a pressurized gas; a mixing chamber for mixing the first gas and the pressurized gas; and a noise-damping member disposed downstream of the mixing chamber ; wherein the mixing chamber further comprises a gas outlet for discharging a mixed stream of gas towards a humidifying chamber ; characterized in that wherein the respiratory apparatus further comprises a flow sensor for determining a flow rate of the mixed stream of gas towards the humidifying chamber ; and wherein the noise-damping member is cylindrical, and has a cylindrical body insertable into the flow sensor and an end portion with a diameter greater than the diameter of the cylindrical body . wherein the mixing chamber further comprises a gas outlet for discharging a mixed stream of gas towards a humidifying chamber ; characterized in that wherein the respiratory apparatus further comprises a flow sensor for determining a flow rate of the mixed stream of gas towards the humidifying chamber ; and wherein the noise-damping member is cylindrical, and has a cylindrical body insertable into the flow sensor and an end portion with a diameter greater than the diameter of the cylindrical body .
A method performed by a home electronic device that receives a data over cable service interface specification downlink communication signal, the method comprising: receiving an indication, from the downlink communication signal of a plurality of channels used to transmit upstream communication signals in an upstream communication portion of a frequency range; determining the maximum frequency value among frequencies specified by the plurality of channels based on the indication; and adjusting a filter response in a filter circuit used to separate the upstream communication signals from the downstream communication signals in the home electronic device based on the determined maximum frequency value; wherein adjusting the filter response comprises: determining if the maximum frequency value is greater than a first value, wherein the adjusting includes switching to a first filter arrangement if the maximum frequency value is not greater than the first value; and switching to a second filter arrangement if the maximum frequency value is greater than a first value. receiving an indication, from the downlink communication signal of a plurality of channels used to transmit upstream communication signals in an upstream communication portion of a frequency range; determining the maximum frequency value among frequencies specified by the plurality of channels based on the indication; and adjusting a filter response in a filter circuit used to separate the upstream communication signals from the downstream communication signals in the home electronic device based on the determined maximum frequency value; wherein adjusting the filter response comprises: determining if the maximum frequency value is greater than a first value, wherein the adjusting includes switching to a first filter arrangement if the maximum frequency value is not greater than the first value; and switching to a second filter arrangement if the maximum frequency value is greater than a first value. determining if the maximum frequency value is greater than a first value, wherein the adjusting includes switching to a first filter arrangement if the maximum frequency value is not greater than the first value; and switching to a second filter arrangement if the maximum frequency value is greater than a first value.