mhurhangee/ep-ind-claims huggingface dataset:
Stirring coil in a continuous casting installation, by means of which a metal strand is cast in a casting direction (x), - wherein the stirring coil has a number n of segments (9, 9'), which in each case surround the metal strand over a partial circumference when viewed in a sectional plane running orthogonally to the casting direction (x), - wherein the segments (9, 9') have in each case a number of coil assemblies (11, 11'), which follow one another sequentially when viewed in the sectional plane, - wherein the segments (9, 9') are in each case formed as partial circular arcs, characterized - in that, in the case where the number n of segments (9, 9') is equal to 1, the segment extends, with respect to a central point of the partial circular arc, over an angle (α) which lies between 135° and 225°, in particular between 150° and 210°, and - in that, in the case where the number n of segments (9, 9') is greater than 1, the segments (9, 9') extend, with respect to a central point (M, M') of the respective partial circular arc, over an angle (α, α') which lies between 180°/n and 270°/n, where n is the number of segments (9, 9'). - wherein the stirring coil has a number n of segments (9, 9'), which in each case surround the metal strand over a partial circumference when viewed in a sectional plane running orthogonally to the casting direction (x), - wherein the segments (9, 9') have in each case a number of coil assemblies (11, 11'), which follow one another sequentially when viewed in the sectional plane, - wherein the segments (9, 9') are in each case formed as partial circular arcs, - in that, in the case where the number n of segments (9, 9') is equal to 1, the segment extends, with respect to a central point of the partial circular arc, over an angle (α) which lies between 135° and 225°, in particular between 150° and 210°, and - in that, in the case where the number n of segments (9, 9') is greater than 1, the segments (9, 9') extend, with respect to a central point (M, M') of the respective partial circular arc, over an angle (α, α') which lies between 180°/n and 270°/n, where n is the number of segments (9, 9').
Method for controlling an automatic closing process of a vehicle wing which is moved from a detected starting position into an end position representing a closed position of the vehicle wing (10, 20, 30, 40, 50), wherein, on reaching the starting position, the closing process of the vehicle wing (10, 20, 30, 40, 50) is started for a preset short first time interval (tk) and then interrupted for a preset second time interval (tw), in order to alert users or third parties of the upcoming closing process of the vehicle wing (10, 20, 30, 40, 50), and wherein, on expiry of the second time interval (tw), the closing process is continued for a third time interval (tz), which is considerably longer than the short first time interval (tk), until the vehicle wing (10, 20, 30, 40, 50) has reached the end position, and wherein the starting position represents a preliminary latching position of a lock of the vehicle wing (10, 20, 30, 40, 50) and the end position represents a main latching position of the lock of the vehicle wing (10, 20, 30, 40, 50).
Method for transmitting information relating to a communication network, implemented by a first server of a communication network, the method comprising the following steps: - storing a data table matching identifiers of sub-networks of the communication network that are associated with respective qualities of service, with at least one network address of a user terminal, said network address comprising an IP address of the user terminal; - receiving a request from a second server of a service provider, said request requesting information related to said communication network; - transmitting at least one portion of the data table to said second server, said portion comprising the matches between each sub-network identifier and said at least one user terminal network address; the data table furthermore matching a user identifier with the network address of a user terminal and with the identifier of the corresponding sub-network, said user identifier being shared by the first server and the second server, the portion transmitted to the second server comprising the matches between each sub-network identifier, each network address and each user identifier and the method furthermore comprising the following steps: - receiving, from the second server, a request to change quality of service from a first quality of service to a second quality of service for a set of user terminals comprising at least one user terminal identified by a user identifier; - updating the data table by matching each network address corresponding to said user identifier in the data table, with the sub-network identifier associated with the second quality of service; and implementing a network-address-differentiated quality-of-service policy depending on a membership of each network address to a sub-network of the communication network, said membership being determined from the data table. - storing a data table matching identifiers of sub-networks of the communication network that are associated with respective qualities of service, with at least one network address of a user terminal, said network address comprising an IP address of the user terminal; - receiving a request from a second server of a service provider, said request requesting information related to said communication network; - transmitting at least one portion of the data table to said second server, said portion comprising the matches between each sub-network identifier and said at least one user terminal network address; - receiving, from the second server, a request to change quality of service from a first quality of service to a second quality of service for a set of user terminals comprising at least one user terminal identified by a user identifier; - updating the data table by matching each network address corresponding to said user identifier in the data table, with the sub-network identifier associated with the second quality of service; and
A process for producing alumina trihydrate by digestion of bauxite ore comprising: (a) an digestion step for digesting said bauxite ore with a sodium aluminate liquor to obtain a slurry including an enriched sodium aluminate liquor comprising dissolved alumina and insoluble residues formed of particles of undissolved bauxite ore; (b) a separation step for treating said slurry to separate the enriched sodium aluminate liquor from the insoluble residues; and (c) a precipitation step for treating said enriched sodium aluminate liquor to precipitate alumina trihydrate, characterized in that the process includes: b1) pretreating the slurry, in a pre-treatment step, by adding a flocculant (115, 117, 129) to said slurry and mixing the flocculant and the slurry to obtain a flocculated slurry, b2) settling said flocculated slurry in a gravity settler vessel to produce a clarified liquor and a thickened slurry of insoluble residues, b3) determining a measured value representative of the concentration of solid particles in the clarified liquor, in a measurement step, b4) comparing the measured value with a predetermined threshold, b5) feeding said clarified liquor directly to the precipitation step, while the measured value is less than said predetermined threshold, and b6) redirecting said clarified liquor to the pre-treatment step b1), when the measured value is more than said predetermined threshold. (a) an digestion step for digesting said bauxite ore with a sodium aluminate liquor to obtain a slurry including an enriched sodium aluminate liquor comprising dissolved alumina and insoluble residues formed of particles of undissolved bauxite ore; (b) a separation step for treating said slurry to separate the enriched sodium aluminate liquor from the insoluble residues; and (c) a precipitation step for treating said enriched sodium aluminate liquor to precipitate alumina trihydrate, b1) pretreating the slurry, in a pre-treatment step, by adding a flocculant (115, 117, 129) to said slurry and mixing the flocculant and the slurry to obtain a flocculated slurry, b2) settling said flocculated slurry in a gravity settler vessel to produce a clarified liquor and a thickened slurry of insoluble residues, b3) determining a measured value representative of the concentration of solid particles in the clarified liquor, in a measurement step, b4) comparing the measured value with a predetermined threshold, b5) feeding said clarified liquor directly to the precipitation step, while the measured value is less than said predetermined threshold, and b6) redirecting said clarified liquor to the pre-treatment step b1), when the measured value is more than said predetermined threshold.
Temporary fixing device for extrusion, comprising a main body inside which there are partially housed retractable clamps arranged around a cotter, the clamps being movable along a main axis between a first relative position and a second relative position with respect to the main body, where in the first position, at least two tips of the clamps are in contact, and in the second position, the at least two tips of the clamps are separated by the cotter; wherein the temporary fixing device further comprises: - a first position control nut arranged around the main body, the first position control nut being movable with respect to the main body along the main axis by means of a thread arranged on an outer surface of said main body;. - a second position control nut housing a base of the clamps, such that rotation of the second position control nut results in a linear movement of the clamps; and - first fixing means which, when in a passage configuration, allow a relative movement between the first position control nut and the main body, and when in a locking configuration, prevent said relative movement between the first position control nut and the main body; characterized in that the temporary fixing device further comprises a lever integral with the second position control nut, the lever being arranged at one end of the device opposite the tips of the clamps. wherein the temporary fixing device further comprises: - a first position control nut arranged around the main body, the first position control nut being movable with respect to the main body along the main axis by means of a thread arranged on an outer surface of said main body;. - a second position control nut housing a base of the clamps, such that rotation of the second position control nut results in a linear movement of the clamps; and - first fixing means which, when in a passage configuration, allow a relative movement between the first position control nut and the main body, and when in a locking configuration, prevent said relative movement between the first position control nut and the main body; - a first position control nut arranged around the main body, the first position control nut being movable with respect to the main body along the main axis by means of a thread arranged on an outer surface of said main body;. - a second position control nut housing a base of the clamps, such that rotation of the second position control nut results in a linear movement of the clamps; and - first fixing means which, when in a passage configuration, allow a relative movement between the first position control nut and the main body, and when in a locking configuration, prevent said relative movement between the first position control nut and the main body; characterized in that the temporary fixing device further comprises a lever integral with the second position control nut, the lever being arranged at one end of the device opposite the tips of the clamps.
A shock-isolated mounting, comprising: a mounting device; a printed board assembly, PBA, attached to the mounting device, at least one electronic component mounted to the PBA; an enclosure configured to support the mounting device, the shock-isolated mounting further characterized by: at least one damper attached between the mounting device and the enclosure and configured for elastically supporting the mounting device; and a thermally-conductive element comprising at least a flexible section, at least a rigid section supported by the enclosure, and a surface disposed on a portion of the mounting device and configured to thermally couple the mounting device to the enclosure, wherein the flexible section joins the rigid section to the surface and permits movement flexibility between the mounting device and the enclosure; and wherein the mounting device is attached to the enclosure with a plurality of shoulder bolts and a shoulder bolt in the plurality of shoulder bolts extends through holes in the mounting device and the thermally-conductive element. a mounting device; a printed board assembly, PBA, attached to the mounting device, at least one electronic component mounted to the PBA; an enclosure configured to support the mounting device, the shock-isolated mounting further characterized by: at least one damper attached between the mounting device and the enclosure and configured for elastically supporting the mounting device; and a thermally-conductive element comprising at least a flexible section, at least a rigid section supported by the enclosure, and a surface disposed on a portion of the mounting device and configured to thermally couple the mounting device to the enclosure, wherein the flexible section joins the rigid section to the surface and permits movement flexibility between the mounting device and the enclosure; and wherein the mounting device is attached to the enclosure with a plurality of shoulder bolts and a shoulder bolt in the plurality of shoulder bolts extends through holes in the mounting device and the thermally-conductive element. at least one damper attached between the mounting device and the enclosure and configured for elastically supporting the mounting device; and a thermally-conductive element comprising at least a flexible section, at least a rigid section supported by the enclosure, and a surface disposed on a portion of the mounting device and configured to thermally couple the mounting device to the enclosure, wherein the flexible section joins the rigid section to the surface and permits movement flexibility between the mounting device and the enclosure; and wherein the mounting device is attached to the enclosure with a plurality of shoulder bolts and a shoulder bolt in the plurality of shoulder bolts extends through holes in the mounting device and the thermally-conductive element.
An apparatus comprising: a switching device for driving a load, the switching device having a control terminal and a conduction threshold which, when crossed by a control signal coupled to the control terminal, causes the switching device to conduct; a control circuit for generating the control signal, the control signal having a first slew rate prior to the control signal crossing the conduction threshold and a second slew rate after the control signal has crossed the conduction threshold, wherein the first slew rate is higher than the second slew rate; characterised by an energy storage device selectively coupled to the control terminal of the switching device; and a conduction threshold reference circuit selectively coupled to the energy storage device to charge the energy storage device to a level associated with the conduction threshold, wherein the level associated with the conduction threshold is sufficiently close to the conduction threshold to provide a controlled switching of the switching device when the energy storage device is selectively coupled to the control terminal of the switching device. a switching device for driving a load, the switching device having a control terminal and a conduction threshold which, when crossed by a control signal coupled to the control terminal, causes the switching device to conduct; a control circuit for generating the control signal, the control signal having a first slew rate prior to the control signal crossing the conduction threshold and a second slew rate after the control signal has crossed the conduction threshold, wherein the first slew rate is higher than the second slew rate; characterised by an energy storage device selectively coupled to the control terminal of the switching device; and a conduction threshold reference circuit selectively coupled to the energy storage device to charge the energy storage device to a level associated with the conduction threshold, wherein the level associated with the conduction threshold is sufficiently close to the conduction threshold to provide a controlled switching of the switching device when the energy storage device is selectively coupled to the control terminal of the switching device.
An information processing apparatus comprising circuitry configured to: acquire (S103; S106), from an input unit, a flick gesture operation performed by a user on a virtual object (26; 30; 32; 34; 35; 37; 38; 39; 40; 42) displayed on a display surface; control (S109; S112) an output unit to display of the virtual object based on the flick gesture operation on the virtual object, by starting said movement from a start point on the display surface at which the flick gesture operation was performed and moving the virtual object in display motion towards a termination point on the display surface at a predetermined distance from the start point on a straight line in a moving direction of the flick gesture operation, the predetermined distance depending on the moving speed of the flick gesture operation; and recognize, and determine a location of, another object that is a real object placed on the display surface; characterised in that the circuitry is further configured to determine a path of travel of the virtual object from the start point to the termination point based on a positional relationship between the virtual object and the real object, wherein the determined path of travel is a path of travel that circumvents the real object when the real object is located on the direct path of travel in a straight line from the start point to the termination point. acquire (S103; S106), from an input unit, a flick gesture operation performed by a user on a virtual object (26; 30; 32; 34; 35; 37; 38; 39; 40; 42) displayed on a display surface; control (S109; S112) an output unit to display of the virtual object based on the flick gesture operation on the virtual object, by starting said movement from a start point on the display surface at which the flick gesture operation was performed and moving the virtual object in display motion towards a termination point on the display surface at a predetermined distance from the start point on a straight line in a moving direction of the flick gesture operation, the predetermined distance depending on the moving speed of the flick gesture operation; and recognize, and determine a location of, another object that is a real object placed on the display surface; characterised in that the circuitry is further configured to determine a path of travel of the virtual object from the start point to the termination point based on a positional relationship between the virtual object and the real object, wherein the determined path of travel is a path of travel that circumvents the real object when the real object is located on the direct path of travel in a straight line from the start point to the termination point.
A method of uplink timing alignment by a network access equipment in a Long Term Evolution network comprising: instructing a user equipment to send a sounding reference signal comprising a constant-amplitude and a zero-auto correlation sequence during a time interval; receiving an uplink transmission from the UE in the time interval; evaluating the time interval to determine if a sounding reference signal transmission comprising a constant-amplitude and a zero-auto correlation sequence was received from the UE in the time interval; and calculating an uplink timing alignment adjustment based on the sounding reference signal transmission comprising a constant-amplitude and a zero-auto correlation sequence, if received, and if no sounding reference signal comprising a constant-amplitude and a zero-auto correlation sequence is received from the UE during the time interval, calculating the uplink timing alignment adjustment based on data received from the UE on a physical uplink shared channel, PUSCH, in the time interval, said data comprising a demodulation reference symbol. instructing a user equipment to send a sounding reference signal comprising a constant-amplitude and a zero-auto correlation sequence during a time interval; receiving an uplink transmission from the UE in the time interval; evaluating the time interval to determine if a sounding reference signal transmission comprising a constant-amplitude and a zero-auto correlation sequence was received from the UE in the time interval; and calculating an uplink timing alignment adjustment based on the sounding reference signal transmission comprising a constant-amplitude and a zero-auto correlation sequence, if received, and if no sounding reference signal comprising a constant-amplitude and a zero-auto correlation sequence is received from the UE during the time interval, calculating the uplink timing alignment adjustment based on data received from the UE on a physical uplink shared channel, PUSCH, in the time interval, said data comprising a demodulation reference symbol.
Mould for a tyre of the type comprising a tread and two lateral sidewalls, the mould comprising first and second shells (16, 18) that are intended to mould the lateral sidewalls of the tyre, and a plurality of sectors that are distributed in the circumferential direction and are intended to mould the tread of said tyre, said sectors being radially movable between an open position and a closed position of the mould, said mould comprising at least one spacing means interposed between each sector and each shell (16, 18) in order to keep said sector and the shells spaced apart in the radial direction in the closed position of the mould, such that the shells (16, 18) and the sectors are in contact in the radial direction only by way of the spacing means, said spacing means being able to limit the heat transfer between the shells and the sectors in said closed position of the mould.
A method for preparing a coating, the method comprising: preparing a first blend of an aqueous colloidal silica and a water miscible solvent comprising 2-propoxyethanol adding a bi-functional silanol coupling agent to the first blend to form a second blend; adding tetraethylorthosilicate (TEOS) to the second blend to form a third blend, wherein the molar ratio of TEOS to the bi-functional silanol is 30:70 to 40:60; adding a fourth blend to the third blend to form a fifth blend, the fourth blend comprising a UV absorber and the water miscible solvent; coating the coating composition onto a glass substrate; and heating the coated substrate to a surface temperature of 230°C to 500°C. preparing a first blend of an aqueous colloidal silica and a water miscible solvent comprising 2-propoxyethanol adding a bi-functional silanol coupling agent to the first blend to form a second blend; adding tetraethylorthosilicate (TEOS) to the second blend to form a third blend, wherein the molar ratio of TEOS to the bi-functional silanol is 30:70 to 40:60; adding a fourth blend to the third blend to form a fifth blend, the fourth blend comprising a UV absorber and the water miscible solvent; coating the coating composition onto a glass substrate; and heating the coated substrate to a surface temperature of 230°C to 500°C.