mhurhangee/patent-ind-claim-en huggingface dataset:
- A system for producing/storing electrical energy (1; 100; 200; 300; 400; 500), wherein electricity storage results in ice formation in a cold source and electricity production results in ice consumption in the cold source , comprising a thermally insulated chamber containing a first closed circuitry in which circulates a first working fluid, a hot source through which a first leg of the first circuitry passes for a heat exchange between the first working fluid and the hot source , a cold source through which a second leg of the first circuitry passes for a heat exchange between the first working fluid and the cold source , the hot and cold sources being thermally insulated from each other, the first circuitry further comprising third and fourth legs connecting in series the first and second legs, the third leg comprising a first member for circulating the first liquid working fluid and the fourth leg comprising a second member for circulating the first gas working fluid, the second circulating member being a reversible turbine, the cold source being composed of an ice slurry with a temperature lower than or equal to -40°C, characterized by the fact that the first fluid circulating member is a reversible pump, that the hot source is composed of a pure water ice slurry at 0°C, and that the system for producing/storing electrical energy (1; 100; 200; 300; 400; 500) further comprises a second circuitry of working fluid for circulating a second working fluid between the hot source and a thermodynamic thermostat constituted of a system at constant temperature adapted to exchange heat, wherein the second working fluid is circulated between said thermodynamic thermostat and the hot source by an auxiliary expansion valve and an auxiliary compressor , and is caused to exchange heat therewith to maintain the hot source at 0°C.
An optical element , comprising: a first light reflecting layer ; a first dielectric thick film layer formed of a dielectric and arranged on the first light reflecting layer ; a multilayer film laminate arranged on the first dielectric thick film layer that includes a plurality of transparent conductor thin films capable of controlling optical transition energy by a Fermi level adjustment and a dielectric thin film that is an atomic layer thin film arranged between a plurality of the transparent conductor thin films; a second dielectric thick film layer formed of a dielectric and arranged on the multilayer film laminate; and a second light reflecting layer arranged on the second dielectric thick film layer, wherein the optical element is capable of applying a predetermined potential difference between any one of the first light reflecting layer or the second light reflecting layer and the transparent conductor thin films . a first light reflecting layer ; a first dielectric thick film layer formed of a dielectric and arranged on the first light reflecting layer ; a multilayer film laminate arranged on the first dielectric thick film layer that includes a plurality of transparent conductor thin films capable of controlling optical transition energy by a Fermi level adjustment and a dielectric thin film that is an atomic layer thin film arranged between a plurality of the transparent conductor thin films; a second dielectric thick film layer formed of a dielectric and arranged on the multilayer film laminate; and a second light reflecting layer arranged on the second dielectric thick film layer, wherein the optical element is capable of applying a predetermined potential difference between any one of the first light reflecting layer or the second light reflecting layer and the transparent conductor thin films .
A control method of a robot, comprising the following steps: acquiring (S110,S210,S310) at least one image captured during a movement of the robot and identifying characteristic line segments in the at least one image; determining (S120) a relative orientation relationship between the robot and a room divider in a physical space according to the identified characteristic line segments, wherein, the room divider is a façade used for dividing the physical space, the identified characteristic line segments are used to determining a principal direction constructed based on the room divider; adjusting (S130) a pose of the robot according to the orientation relationship, such that the robot moves along the principal direction constructed based on the room divider in the physical space; and planning a navigation route based on a current position of the robot when determining that the robot moves along the principal direction constructed based on the room divider in the physical space, wherein, the navigation route comprises: a first route along which the robot moves towards the room divider, and a second route along which the robot traverses a preset region from an end point of the first route. acquiring (S110,S210,S310) at least one image captured during a movement of the robot and identifying characteristic line segments in the at least one image; determining (S120) a relative orientation relationship between the robot and a room divider in a physical space according to the identified characteristic line segments, wherein, the room divider is a façade used for dividing the physical space, the identified characteristic line segments are used to determining a principal direction constructed based on the room divider; adjusting (S130) a pose of the robot according to the orientation relationship, such that the robot moves along the principal direction constructed based on the room divider in the physical space; and planning a navigation route based on a current position of the robot when determining that the robot moves along the principal direction constructed based on the room divider in the physical space, wherein, the navigation route comprises: a first route along which the robot moves towards the room divider, and a second route along which the robot traverses a preset region from an end point of the first route.
Amusement ride with at least one vehicle , which comprises one or more means of passenger reception for receiving passengers, and with a pool , wherein the amusement ride is implemented such so as to allow for at least one pendulum movement of the vehicle , wherein the amusement ride is implemented such that the pool can be filled, at least partially, with a liquid and the vehicle , in the course of the pendulum movement, comes into contact with the liquid , characterized in that the vehicle is supported by a support structure with one axis (D), whereby the vehicle forms, together with the support structure, a swinging amusement ride, and in that the pool comprises at least one section over which the liquid can flow, wherein means are provided with which a flow rate of the liquid over the section of the pool can be varied.
A knob assembly comprising: a knob having a rotatable shaft; a rotatable, first circuit board rigidly attached to the rotatable shaft of the knob, and including: an encoding portion configured to provide positioning data of the knob; and an eccentric rotating mass motor mounted to the rotatable, first circuit board with a shaft of the eccentric rotating mass motor perpendicular to the rotatable shaft of the knob, the eccentric rotating mass motor being configured to produce and transfer vibration to the rotatable shaft of the knob; and a fixed, second circuit board positioned near the first circuit board, and including a sensor configured to determine a position of the first circuit board and thereby the knob at least in part from the positioning data provided by the encoding portion. a knob having a rotatable shaft; a rotatable, first circuit board rigidly attached to the rotatable shaft of the knob, and including: an encoding portion configured to provide positioning data of the knob; and an eccentric rotating mass motor mounted to the rotatable, first circuit board with a shaft of the eccentric rotating mass motor perpendicular to the rotatable shaft of the knob, the eccentric rotating mass motor being configured to produce and transfer vibration to the rotatable shaft of the knob; and an encoding portion configured to provide positioning data of the knob; and an eccentric rotating mass motor mounted to the rotatable, first circuit board with a shaft of the eccentric rotating mass motor perpendicular to the rotatable shaft of the knob, the eccentric rotating mass motor being configured to produce and transfer vibration to the rotatable shaft of the knob; and a fixed, second circuit board positioned near the first circuit board, and including a sensor configured to determine a position of the first circuit board and thereby the knob at least in part from the positioning data provided by the encoding portion.
A method of communicating in a wireless network, comprising: generating a compressed beacon comprising: a next full beacon time indication, NFBTI, field , and transmitting, at an access point, the compressed beacon, characterized in that the compressed beacon comprises a timestamp and the timestamp is a shortened timestamp comprising fewer bits than a full timestamp. generating a compressed beacon comprising: a next full beacon time indication, NFBTI, field , and transmitting, at an access point, the compressed beacon, characterized in that the compressed beacon comprises a timestamp and the timestamp is a shortened timestamp comprising fewer bits than a full timestamp.
A curable isocyanate-free formulation for preparing a polyurethane self-blowing foam comprising at least one multifunctional cyclic carbonate having at least two cyclic carbonate groups at the end of the chain (compound A), at least one multifunctional amine (compound B), at least one masked thiol precursor (compound C) and optionally at least one catalyst (compound D).
A method of handling a hash-tree based data signature, the method being performed in a first device and comprising: - receiving , from a second device , a data signature generation request, the request comprising an indication on type of storage of a generated data signature, - generating , in response to the data signature generation request, a data signature B using a hash-tree based data signing method, and - providing , to the second device , based on the indication on type of storage, a reference C to the generated data signature B, wherein the generated data signature B is obtainable by means of the reference C. - receiving , from a second device , a data signature generation request, the request comprising an indication on type of storage of a generated data signature, - generating , in response to the data signature generation request, a data signature B using a hash-tree based data signing method, and - providing , to the second device , based on the indication on type of storage, a reference C to the generated data signature B, wherein the generated data signature B is obtainable by means of the reference C.
Rocker-arm igniter having an igniter head , which comprises a pivotably arranged striker which is acted upon by a striker spring , and having a securing bracket , which is pivotably arranged in a striker release position, characterized in that the striker head comprises a tensioning lever which can be actuated from an inoperative position into a primed position and which is connected to the striker spring by a tensioning lever shaft , that the striker spring can be actuated from its untensioned state into a tensioned state and the striker spring can be locked in its tensioned state by means of a securing device , wherein the securing device contains a disk-shaped bolt wheel connected to the tensioning lever shaft in a non-rotatable fashion, which bolt wheel contains at least a first latching groove on its outer periphery and comprises a locking arm arranged so as to be pivotable about a rotational axis , wherein the rotational axis of the locking arm is arranged parallel to the tensioning lever shaft and the locking arm has a latching element on its end facing away from the rotational axis , said latching element being pressed by a pretensioned spring against the outer periphery of the bolt wheel , so that the latching element engages with a second latching groove in the bolt wheel when the tensioning lever reaches the primed position - and therefore the tensioned state of the striker spring .
A computing device configured to harden data encryption with a secure enclave executed in user mode; comprising: a processor: ; a memory ; and a user mode interface module at least partially implemented in a kernel mode of said processor, wherein said user mode interface module is to: queue unprocessed data in a shared buffer that is accessible to said user mode interface module and an enclave host module executable at least in part in a user mode of said processor, said enclave host module hosting a secure enclave; and provide a buffered data indicator to said enclave host module, said buffered data indicator being configured to cause said secure enclave to perform encryption operations on said unprocessed data to produce processed data. a processor: ; a memory ; and a user mode interface module at least partially implemented in a kernel mode of said processor, wherein said user mode interface module is to: queue unprocessed data in a shared buffer that is accessible to said user mode interface module and an enclave host module executable at least in part in a user mode of said processor, said enclave host module hosting a secure enclave; and provide a buffered data indicator to said enclave host module, said buffered data indicator being configured to cause said secure enclave to perform encryption operations on said unprocessed data to produce processed data. queue unprocessed data in a shared buffer that is accessible to said user mode interface module and an enclave host module executable at least in part in a user mode of said processor, said enclave host module hosting a secure enclave; and provide a buffered data indicator to said enclave host module, said buffered data indicator being configured to cause said secure enclave to perform encryption operations on said unprocessed data to produce processed data.
A one step process for the synthesis of poly lactic acid (PLA) pellets comprising dissolving poly lactic acid of weight average molecular weight in the range of 600,000-800,000 (6 to 8 lakhs) in a solvent followed by extrusion at the temperature ranging from 25°C to 30°C to obtain fibre morphologies, said fibres are cut to obtain pellets, wherein the weight average molecular weight of PLA in the pellets is retained in the range of 600,000-800,000 (6 to 8 lakhs), and wherein the weight average molecular weight is determined as indicated in the description.
Stranding element, with at least one essentially stationary storage container for the good to be stranded and with at least one rotating guidance device for the good for guiding the good from the storage container essentially in parallel to the rotational axis of the guidance device in the direction of the stranding region , wherein the guidance device is swivel-mounted in a carrier structure , characterized in that the at least one guidance device is swivel-mounted by means of a bearing arrangement (L), which bearing arrangement (L) is completely within the field of rotation of the good and is attached to the carrier structure via at least one holding assembly (H) extending radially from the bearing assembly across the field of rotation of the good and axially spaced away from the guidance device , which holding assembly (H) comprises at least one passage at least temporarily opening in the circumferential direction for the good to pass through.
A media processing device comprising: a media cover ; a media cover release actuator to release the media cover from a closed position in response to actuation; a peel bar having a non-peeling position, a ready position, and a peeling position; a peeler actuator configured to transition the peel bar from the non-peeling position to the ready position, and, characterised by : wherein the peel bar is configured to transition from the ready position to the peeling position in response to the media cover being closed. a media cover ; a media cover release actuator to release the media cover from a closed position in response to actuation; a peel bar having a non-peeling position, a ready position, and a peeling position; a peeler actuator configured to transition the peel bar from the non-peeling position to the ready position, and, characterised by : wherein the peel bar is configured to transition from the ready position to the peeling position in response to the media cover being closed.
A method of determining visibility distances based on a dynamic Field of View, FoV, of an ego vehicle , comprising the following steps: initializing (S10) the dynamic FoV based on sensor data of more than one sensor of the ego vehicle ; creating (S20) map polygons, each of which determines edges of a road in a map of the surroundings of the ego vehicle ; determining (S30) visible areas in the map by intersecting the map polygons with the dynamic FoV ; and determining (S40) a visibility distance for the road based on the visible areas, wherein initializing the dynamic FoV comprises the following steps: initializing (S11) an ideal FoV for each sensor of the ego vehicle ; determining (S12) occlusions for each sensor , based on the sensor data of the respective sensor and creating non-visible polygons based on the occlusions ; subtracting (S13), for each sensor , the respective non-visible polygons from the respective ideal FoV , forming an altered FoV ; and unifying (S14) the altered FoVs forming the dynamic FoV ; and wherein the map polygons are created (S20) based on map data, particularly map data from a navigation system of the ego vehicle , and localisation data, particularly localisation data from a GPS system of the ego vehicle . initializing (S10) the dynamic FoV based on sensor data of more than one sensor of the ego vehicle ; creating (S20) map polygons, each of which determines edges of a road in a map of the surroundings of the ego vehicle ; determining (S30) visible areas in the map by intersecting the map polygons with the dynamic FoV ; and determining (S40) a visibility distance for the road based on the visible areas, wherein initializing the dynamic FoV comprises the following steps: initializing (S11) an ideal FoV for each sensor of the ego vehicle ; determining (S12) occlusions for each sensor , based on the sensor data of the respective sensor and creating non-visible polygons based on the occlusions ; subtracting (S13), for each sensor , the respective non-visible polygons from the respective ideal FoV , forming an altered FoV ; and unifying (S14) the altered FoVs forming the dynamic FoV ; initializing (S11) an ideal FoV for each sensor of the ego vehicle ; determining (S12) occlusions for each sensor , based on the sensor data of the respective sensor and creating non-visible polygons based on the occlusions ; subtracting (S13), for each sensor , the respective non-visible polygons from the respective ideal FoV , forming an altered FoV ; and unifying (S14) the altered FoVs forming the dynamic FoV ; and wherein the map polygons are created (S20) based on map data, particularly map data from a navigation system of the ego vehicle , and localisation data, particularly localisation data from a GPS system of the ego vehicle .
Method for producing a prechamber spark plug with an external thread and a cap with at least one through opening , comprising the following steps: - providing of the prechamber spark plug without cap and with a cylindrical circumferential surface for the external thread , - mounting of the cap , which has at least one through opening , in any desired orientation on the prechamber spark plug , and characterized by the - production of the external thread on the circumferential surface in such a way that a thread start and/or thread end of the external thread is oriented at a predefined position in relation to the through opening . - providing of the prechamber spark plug without cap and with a cylindrical circumferential surface for the external thread , - mounting of the cap , which has at least one through opening , in any desired orientation on the prechamber spark plug , and characterized by the - production of the external thread on the circumferential surface in such a way that a thread start and/or thread end of the external thread is oriented at a predefined position in relation to the through opening .
Sensor system for an arrangement of driverless transport vehicles , wherein each driverless transport vehicle has at its rear side an identifier characterising this and wherein each driverless transport vehicle has at its front side sensor means configured to determine the identifier and the spacing of a preceding driverless transport vehicle , and wherein sensor signals generated by the sensor means are evaluated in an evaluating unit and in dependence thereon control signals, by means of which the speed of the driverless transport vehicle is controlled, are generated, characterised in that the identifier and the spacing of the preceding driverless transport vehicle are detected by the same sensor means, the sensor means are formed by an optical sensor and the optical sensor is configured for monitoring a protective field.
Device for measurement of an electric field (E), the device comprising a micromechanical structure , which extends in a first direction (x), a second direction (y) and a third direction (z), wherein the first direction (x), the second direction (y) and the third direction (z) are mutually normal to one another, characterized in that the micromechanical structure is made from a material that is electrically conducting at an operating temperature and has a frame portion as well as a movable portion , wherein the movable portion is connected in electrically conducting and mechanically elastic manner with the frame portion and is movable relative to the frame portion , wherein the micromechanical structure is so designed that, in the case of an arrangement of the micromechanical structure in the electric field (E) with a non-zero first field-strength component (E x ) parallel to the first direction (x), an electrical polarization of the micromechanical structure takes place, which results in a first force component (F x ) acting on the movable portion parallel to the first direction (x) as well as a change, dependent on the first force component (F x ), of the spatial arrangement of the movable portion relative to the frame portion , and wherein detecting means are provided, in order to determine the change of the spatial arrangement of the movable portion relative to the frame portion .
An aerosol composition for hair, comprising: 2 to 7% by mass of an oil absorbing powder having an oil absorption of 0.45 to 0.75 ml/g; 0.1 to 0.6% by mass of a polyol; 3 to 33% by mass of a lower alcohol; and 65 to 94% by mass of a hydrocarbon having 3 to 5 carbon atoms which has a vapor pressure of 0.05 to 0.35 MPa at a temperature of 20°C; and containing no surfactant, wherein the lower alcohol has 2 to 3 carbon atoms and wherein the oil absorption is measured according to the description and wherein, when the oil absorbing powder is a mixture, the oil absorption of the mixture is 0.45 to 0.75 ml/g.