mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method comprising: determining a plurality of future locations of a device based on a current location of the device , a substantial bearing of the device and a plurality of distances from the current location of the device ; determining a time of arrival for each of the plurality of future locations in response to the future locations being located outside a geographic region associated with a current location; determining a time of arrival closest to the current time based on the determined times of arrival; transmitting a low power mode interval to the device based on the determined time of arrival at a closest future location in response to the closest future location being in a different geographic region and requiring a different frequency band as currently used, wherein the low power mode interval is to enable the device to reactivate in advance of the time of arrival at the future location; wherein the geographic region is defined according to frequencies or frequency bands associated with unlicensed wireless sub-GHz communication; wherein the time of arrival of the device at the closest future location is based on a speed of the device and a distance from the closest future location; wherein the substantial bearing of the device refers to any bearing no more than +/- 15 degrees from a current bearing and/or heading of the device, and wherein the distances are determined randomly or at initialization. determining a plurality of future locations of a device based on a current location of the device , a substantial bearing of the device and a plurality of distances from the current location of the device ; determining a time of arrival for each of the plurality of future locations in response to the future locations being located outside a geographic region associated with a current location; determining a time of arrival closest to the current time based on the determined times of arrival; transmitting a low power mode interval to the device based on the determined time of arrival at a closest future location in response to the closest future location being in a different geographic region and requiring a different frequency band as currently used, wherein the low power mode interval is to enable the device to reactivate in advance of the time of arrival at the future location; wherein the geographic region is defined according to frequencies or frequency bands associated with unlicensed wireless sub-GHz communication; wherein the time of arrival of the device at the closest future location is based on a speed of the device and a distance from the closest future location; wherein the substantial bearing of the device refers to any bearing no more than +/- 15 degrees from a current bearing and/or heading of the device, and wherein the distances are determined randomly or at initialization.
A method of collaborative geolocation of one or more nodes Mi in a communication network, the nodes inter-exchanging distance and/or position information, comprising at least the following steps: • Determine a first sub-graph VI of neighbor nodes of a current node A to be geolocated, in N hops, • Select in said first sub-graph V 1 , the largest observable sub-graph V 3 , the observable sub-graph being composed of a set of nodes adapted to estimate their own position in a unique manner, said nodes communicating with the node to be geocalized by broadcasting position and ranging information measured by said nodes, • Execute a geolocation algorithm on the nodes of the largest observable sub-graph V 3 and determine at least the position of the current node A. • Determine a first sub-graph VI of neighbor nodes of a current node A to be geolocated, in N hops, • Select in said first sub-graph V 1 , the largest observable sub-graph V 3 , the observable sub-graph being composed of a set of nodes adapted to estimate their own position in a unique manner, said nodes communicating with the node to be geocalized by broadcasting position and ranging information measured by said nodes, • Execute a geolocation algorithm on the nodes of the largest observable sub-graph V 3 and determine at least the position of the current node A.
Dating system for molds, comprising at least one date stamp connected to a knob through a connection cable , the date stamp comprising an engraving formed only by numbers and/or letters and a position indicator, characterized in that said knob is formed at one end of an axis , said axis being rotatable only in one direction.
An inorganic filler, comprising: a surface-treated hexagonal boron nitride, wherein the surface of the hexagonal boron nitride is modified using a polycyclic aromatic hydrocarbon having a functional group, wherein the functional group is selected from the group consisting of -OH, -NH 2 ,-COOH, -HSO 3 , -NH 2 CO, Cl, Br, F, C 1 to C 3 alkyls, C 2 to C 3 alkenes, and C 2 to C 3 alkynes. a surface-treated hexagonal boron nitride, wherein the surface of the hexagonal boron nitride is modified using a polycyclic aromatic hydrocarbon having a functional group, wherein the functional group is selected from the group consisting of -OH, -NH 2 ,-COOH, -HSO 3 , -NH 2 CO, Cl, Br, F, C 1 to C 3 alkyls, C 2 to C 3 alkenes, and C 2 to C 3 alkynes.
Optoelectronic thin-film chip comprising - at least one radiation-emitting region in an active zone of a thin-film layer , and - a lens which is arranged downstream of the radiation-emitting region and which is formed by at least a partial region of the thin-film layer , wherein the lateral extent (Φ) of the lens is greater than the lateral extent of the radiation-emitting region (δ), - a distance between the radiation-emitting region and a base point of the lens is between 1 and 25 μm, characterized in that - the thin-film chip comprises a carrier applied to a side of the thin-film layer opposite the lens , - at least one current injection region is present, which is arranged between the carrier and the thin-film layer , the lateral extent of the lens (Φ) being greater than the lateral extent of the current injection region (δ), - a depression is introduced in an interface of the thin-film layer which faces the carrier , wherein the depression at least partially surrounds the current injection region and wherein the depression does not cut through the active zone . - at least one radiation-emitting region in an active zone of a thin-film layer , and - a lens which is arranged downstream of the radiation-emitting region and which is formed by at least a partial region of the thin-film layer , wherein the lateral extent (Φ) of the lens is greater than the lateral extent of the radiation-emitting region (δ), - a distance between the radiation-emitting region and a base point of the lens is between 1 and 25 μm, - the thin-film chip comprises a carrier applied to a side of the thin-film layer opposite the lens , - at least one current injection region is present, which is arranged between the carrier and the thin-film layer , the lateral extent of the lens (Φ) being greater than the lateral extent of the current injection region (δ), - a depression is introduced in an interface of the thin-film layer which faces the carrier , wherein the depression at least partially surrounds the current injection region and wherein the depression does not cut through the active zone .
A movable vane for a wheel of an aircraft turbomachine, said vane comprising an aerodynamic blade extending along a stacking axis (Z) and an outer heel delimiting said blade along said stacking axis (Z), said heel comprising a platform and a first lip protruding from said platform , the first lip being inclined upstream at an acute angle to said stacking axis (Z), said first lip extending circumferentially along an axis of elongation (X), characterised in that the heel comprises a row of ribs (10a-10c) spaced from each other, said row comprising at least two ribs (10a-10c), said row of ribs (10a-10c) extending along said axis of elongation (X), each rib (10a-10c) extending along said stacking axis (Z) from said platform to said first lip , each rib (10a-10c) being arranged upstream of the first lip according to the direction of gas flow around said blade so as to generate turbulence upstream of said first lip .
Holding device for holding a soft-magnetic stacked transformer core comprising layers having an amorphous and/or nanocrystalline structure made of a ferrous alloy, particularly of a FeSiB alloy, wherein the stacked transformer core comprises at least two coil legs running parallel to each other and two yokes connected with opposite ends of the coils legs , comprising - at least two holding units that can be arranged in such a way at one of the yokes that the holding units are arranged at opposite end regions of the stacked transformer core , and - at least one mechanical fixing means acting on both holding units , the holding units being nondestructively detachably connected with each other via the fixing means , characterized in that the holding device comprises - at least one spacer clamped between said holding units and - at least one spring element arrangeable between at least one holding unit and the stacked transformer core , - wherein the holding device is constructed in such a way that the spring element is elastically deformed by an at least indirect contact with the stacked transformer core caused when the stacked transformer core is arranged at the holding device . - at least two holding units that can be arranged in such a way at one of the yokes that the holding units are arranged at opposite end regions of the stacked transformer core , and - at least one mechanical fixing means acting on both holding units , the holding units being nondestructively detachably connected with each other via the fixing means , characterized in that the holding device comprises - at least one spacer clamped between said holding units and - at least one spring element arrangeable between at least one holding unit and the stacked transformer core , - wherein the holding device is constructed in such a way that the spring element is elastically deformed by an at least indirect contact with the stacked transformer core caused when the stacked transformer core is arranged at the holding device .
An apparatus for freezing a portion of a skin tissue to lighten an appearance of the skin tissue, comprising: a cooling plate , wherein a lower surface of the cooling plate is configured to contact a surface of the skin tissue to produce a lightening of the surface of the skin tissue contacted by the cooling plate, wherein the apparatus is configured to cool at least one portion of the cooling plate to a temperature that is less than -5 degrees Celsius to freeze a portion of the skin tissue contacted by the cooling plate to lighten the appearance of the portion of the skin tissue, and wherein a width of the lower surface of the cooling plate is greater than 3 cm and is configured for freezing a continuous region of the skin tissue to produce the lightening of the surface of the skin tissue; a sensing arrangement configured to detect an onset of local freezing of the skin tissue during a contact between the cooling plate and the surface of the skin tissue; characterized by a timing arrangement configured to monitor an elapsed time following the detection of the onset of the local freezing of the skin tissue by the sensing arrangement, wherein the timing arrangement is configured to output a signal after an elapse of a predetermined treatment time following the detection of the onset of the local freezing of the skin tissue by the sensing arrangement. a cooling plate , wherein a lower surface of the cooling plate is configured to contact a surface of the skin tissue to produce a lightening of the surface of the skin tissue contacted by the cooling plate, wherein the apparatus is configured to cool at least one portion of the cooling plate to a temperature that is less than -5 degrees Celsius to freeze a portion of the skin tissue contacted by the cooling plate to lighten the appearance of the portion of the skin tissue, and wherein a width of the lower surface of the cooling plate is greater than 3 cm and is configured for freezing a continuous region of the skin tissue to produce the lightening of the surface of the skin tissue; a sensing arrangement configured to detect an onset of local freezing of the skin tissue during a contact between the cooling plate and the surface of the skin tissue; characterized by a timing arrangement configured to monitor an elapsed time following the detection of the onset of the local freezing of the skin tissue by the sensing arrangement, wherein the timing arrangement is configured to output a signal after an elapse of a predetermined treatment time following the detection of the onset of the local freezing of the skin tissue by the sensing arrangement.
A diagnostic method for diagnosing a malfunction in a solenoid valve, wherein the solenoid valve comprises an electromagnet and a valve body wherein one or more orifices are provided for the passage of a pressurized fluid and wherein the electromagnet comprises a solenoid which may be powered with a solenoid current and a magnetic circuit comprising a movable core placed and slidable in the solenoid, the method comprising the steps of: a) detecting the first current peak (I PEAK ) of the solenoid current generated by the engagement of the movable core; b) verifying, by means of a current waveform sampling circuit sampling the waveform at predetermined time intervals after detection of the first current peak has occurred , if the waveform of the solenoid current has, after said first current peak and before reaching a minimum current value (I VALLEY ) corresponding to the end of the stroke of the movable core inside the solenoid, an inflection and/or other relative minimum (m) and maximum (M) points, wherein the first current peak is detected by means of an analog peak detection circuit which compares the value of the instantaneous solenoid current with the value of the solenoid current to which a predetermined delay is applied. a) detecting the first current peak (I PEAK ) of the solenoid current generated by the engagement of the movable core; b) verifying, by means of a current waveform sampling circuit sampling the waveform at predetermined time intervals after detection of the first current peak has occurred , if the waveform of the solenoid current has, after said first current peak and before reaching a minimum current value (I VALLEY ) corresponding to the end of the stroke of the movable core inside the solenoid, an inflection and/or other relative minimum (m) and maximum (M) points, wherein the first current peak is detected by means of an analog peak detection circuit which compares the value of the instantaneous solenoid current with the value of the solenoid current to which a predetermined delay is applied.
A fixing structure for an inflator and an airbag , in which the inflator and the airbag are fixed by a fixing member to a plate portion of a module case, comprising an outer shell of the inflator being a housing in a substantially columnar shape, the housing including a gas discharge port provided in a circumferential wall surface on one end surface side in the axial direction, and a lower annular step surface provided at a circumferential wall surface on an other end surface side in the axial direction, the lower annular step surface being formed by reducing an outer diameter of the housing on the other end surface side, the fixing member being a lower fixing member that supports and fixes the inflator from a lower surface side of the plate portion , the lower fixing member including a tubular wall portion and a flange portion formed at an opening at one end, the tubular wall portion having an inner surface in such a shape that the tubular wall portion is fitted to the circumferential wall surface including the lower annular step surface of the inflator housing , wherein the remaining portion of the circumferential wall surface is in contact with the inner circumferential surface of a hole of the plate portion , and the flange portion having a plurality of bolt holes , the fixing structure for the inflator and the airbag including the inflator fitted into the hole, which is formed in the plate portion of the module case, such that the circumferential wall surface provided with the gas discharge port is on an upper surface side of the plate portion , and the circumferential wall surface including the lower annular step surface is on the lower surface side of the plate portion , on the upper surface side of the plate portion , the airbag covering and enclosing, from a bag opening, the circumferential wall surface , provided with the gas discharge port , of the inflator housing , on the lower surface side of the plate portion the lower fixing member having the tubular wall portion abutting against the circumferential wall surface , which includes the annular step surface of the inflator housing , and the flange portion abutting against the lower surface of the plate portion , and the airbag and the lower fixing member being fixed with a bolt and a nut mounted through the airbag , the plate portion and the flange portion of the lower fixing member .
A method for designing a dental prosthetic device by use of a computer, comprising: acquiring scan data of maxillary and mandibular dentitions; determining a restoration site (A1, A2) of a tooth, based on the scan data; reading out plural pieces of attrition shape data (D1, D2, D11, D12) of a tooth related to the restoration site (A1, A2), from maxillary and mandibulartooth shape data sets having plural pieces of attrition shape data (D1, D2, D11, D12) with different degrees of attrition for each tooth of the maxillary and mandibular dentitions; selecting attrition shape data (D1, D2, D11, D12) from among the plural pieces of attrition shape data (D1, D2, D11, D12), in accordance with the degrees of attrition of the maxillary and mandibular dentitions; placing the selected attrition shape data (D1, D2, D11, D12) at the restoration site (A1, A2); and creating shape data of a dental prosthetic device from the attrition shape data (D1, D2, D11, D12) placed at the restoration site (A1, A2). acquiring scan data of maxillary and mandibular dentitions; determining a restoration site (A1, A2) of a tooth, based on the scan data; reading out plural pieces of attrition shape data (D1, D2, D11, D12) of a tooth related to the restoration site (A1, A2), from maxillary and mandibulartooth shape data sets having plural pieces of attrition shape data (D1, D2, D11, D12) with different degrees of attrition for each tooth of the maxillary and mandibular dentitions; selecting attrition shape data (D1, D2, D11, D12) from among the plural pieces of attrition shape data (D1, D2, D11, D12), in accordance with the degrees of attrition of the maxillary and mandibular dentitions; placing the selected attrition shape data (D1, D2, D11, D12) at the restoration site (A1, A2); and creating shape data of a dental prosthetic device from the attrition shape data (D1, D2, D11, D12) placed at the restoration site (A1, A2).
Sheet processing machine , comprising at least one infeed unit and at least one shaping unit and at least one stripping unit and at least one multiple-up separating unit , the sheet processing machine comprising at least one drive , characterized in that the at least one drive is configured to drive at least one stripping tool (402; 403) of at least one stripping mechanism of the at least one stripping unit and/or at least one multiple-up separating tool of at least one multiple-up separating mechanism of the at least one multiple-up separating unit via at least one gear mechanism , in that at least one downstream gear mechanism is arranged downstream from the at least one gear mechanism , in that the at least one downstream gear mechanism is coupled to the at least one stripping tool (402; 403) of the at least one stripping unit and/or to the at least one multiple-up separating tool of the at least one multiple-up separating unit , in that the at least one downstream gear mechanism is configured to convert at least one rotative movement into at least one reciprocating movement, and in that the at least one downstream gear mechanism is configured as a disk cam mechanism .
A modular connector for cables or pipes, comprising two modular connector halves, at least one of the modular connector halves having a compressible body with an axial groove provided therein for arrangement of a shielded or armored cable or a pipe and extending from a first end to a second end, wherein the groove is adapted to be dimensioned or dimensionable to sealingly fit around a circumference of the shielded or armored cable, or pipe, wherein the modular connector comprises a conductor arrangement which conductor arrangement comprises at least two conductors arranged to follow a non-linear path, arranged between the first end and the second end, wherein the conductor arrangement is also arranged to be sandwiched between the compressible body and a cable screen or armor of the cable, or the pipe, and the conductor arrangement further extends to an outside of the modular connector for cables or pipes, wherein the compressible body comprises a recess through which said conductor arrangement extends to the outside of the modular connector , wherein the recess extends along the full, or a part of, the outer circumference of the compressible body characterized in that the recess is arranged to allow for two module halves to meet with the conductor arrangement sandwiched between them.