mhurhangee/ep-ind-claims huggingface dataset:
Recessable luminaire, intended to be recessed through an opening in a wall, comprising a spring, the spring having a supporting rod movable between an armed position in which the supporting rod allows the insertion of the luminaire in the opening and a deployed position in which the supporting rod extends laterally to allow the spring to apply against a side rear wall a force holding the luminaire inserted into the opening, and a portion wound spirally on the luminaire, for biaising the supporting rod in the deployed position, characterized in that the luminaire comprises a flexible tongue, elastically deformable, having a proximal end connected to the luminaire, a distal free end, and, between the proximal end and the distal free end, an intermediate click-stop portion, the distal free end comprising a supporting surface intended to come into abutment against the wall when the luminaire is inserted into the opening to cause the deformation of the tongue, the intermediate click-stop portion comprising a friction surface, against which is intended to rub the supporting rod when the supporting rod is moved to the armed position, and a locking surface, for locking the supporting rod in the armed position once the supporting rod stopped rubbing against the friction surface, the friction surface having a profile configured to cause the elastic deformation of the tongue and/or the rod when the supporting rod rubs against the friction surface, so as to arm the spring without manipulation of the tongue by a user, and the flexible tongue comprising a connecting portion connecting mechanically the intermediate click-stop portion to the distal free end, so that the insertion of the luminaire in the opening causes, by supporting on the supporting surface and bending the tongue, the displacement of the locking surface out of the path described by the supporting rod from the armed position to the deployed position.
Mobile communication end device, in particular a smartphone, for configuring at least one operating device for operating a luminous element, wherein the mobile communication end device has at least one optical sensor (12, 13) which is provided for detecting photometric parameters comprising brightness information; wherein the mobile communication end device has an interface for wireless communication with the at least one operating device, and in particular is configured to exchange configuration parameters with the operating device via the interface, wherein the configuration parameters are transmitted from and/or to the mobile communication device, and to control the light reproduction of the luminous element on the basis of the detected photometric parameters, wherein the control takes place by changing configuration parameters; wherein the mobile communication end device is configured to automatically recognize the operating device by means of an identifier and to transmit predetermined configuration parameters to the operating device; characterized in that the mobile communication end device is configured to read and save position data from the operating device and/or the lamp, and to transmit predetermined configuration parameters automatically and/or in response to a user interaction to the operating device if the mobile communication end device is located at a certain distance from the operating device.
Method for cooling a metallic strand, preferably a steel strand, in a strand guide of a strand casting machine, comprising the following method steps: - Active control of a switchable switching valve by means of a binary control signal, wherein the control takes place as a function of a desired cooling power; - Actuating a switching element of the switching valve as a function of the control signal, wherein the switching element is introduced from a closed position into an open position or vice versa as a function of the control signal, and the flow of a cooling medium through the switching valve is opened in an open position of the switching element and closed in a closed position of the switching element; then - Intermittently applying the coolant via a cooling nozzle to the strand. - Active control of a switchable switching valve by means of a binary control signal, wherein the control takes place as a function of a desired cooling power; - Actuating a switching element of the switching valve as a function of the control signal, wherein the switching element is introduced from a closed position into an open position or vice versa as a function of the control signal, and the flow of a cooling medium through the switching valve is opened in an open position of the switching element and closed in a closed position of the switching element; - Intermittently applying the coolant via a cooling nozzle to the strand.
Apparatus (1; 1') for identifying and locating sample containers having at least one RFID tag, comprising - multiple holders for holding one sample container each; - multiple read antennas (5 x1, 5 x2, 5 x3, 5 x4, 5 x5, 5 y1, 5 y2, 5 y3, 5 y4, 5 y5) for reading an RFID tag of a sample container held in one of the holders, wherein the read antennas (5 x1, 5 x2, 5 x3, 5 x4, 5 x5, 5 y1, 5 y2, 5 y3, 5 y4, 5 y5) are selectively connectable to at least one reading device such that an RFID tag is readable, identifiable and locatable by means of the reading device and this read antenna (5 x1, 5 x2, 5 x3, 5 x4, 5 x5, 5 y1, 5 y2, 5 y3, 5 y4, 5 y5); wherein each holder has associated values (x1, x2, x3, x4, x5, y1, y2, y3, y4, y5) of at least two coordinates (x, y) that explicitly denote the holders; characterized in that at least one value (x1, x2, x3, x4, x5, y1, y2, y3, y4, y5) of one of the coordinates (x, y) has precisely one associated read antenna (5 x1, 5 x2, 5 x3, 5 x4, 5 x5, 5 y1, 5 y2, 5 y3, 5 y4, 5 y5) by means of which the RFID tags of the sample containers of the holders with which this value (x1, x2, x3, x4, x5, y1, y2, y3, y4, y5) of this coordinate (x, y) is associated are readable. - multiple holders for holding one sample container each; - multiple read antennas (5 x1, 5 x2, 5 x3, 5 x4, 5 x5, 5 y1, 5 y2, 5 y3, 5 y4, 5 y5) for reading an RFID tag of a sample container held in one of the holders, wherein the read antennas (5 x1, 5 x2, 5 x3, 5 x4, 5 x5, 5 y1, 5 y2, 5 y3, 5 y4, 5 y5) are selectively connectable to at least one reading device such that an RFID tag is readable, identifiable and locatable by means of the reading device and this read antenna (5 x1, 5 x2, 5 x3, 5 x4, 5 x5, 5 y1, 5 y2, 5 y3, 5 y4, 5 y5);
Double-walled cookware with an inner hull and an outer hull, which are arranged with a distance in each other and have a flat bottom area and a wall area, and with a bottom plate arranged in the bottom area between the two hulls wherein the two hulls are vacuum-tightly connected to each other and there is a vacuum between them, characterized in that the bottom plate is in contact with the bottom areas of the inner hull and the outer hull without a material-locking connection.
A lead-in bushing for explosive atmospheres comprising a bushing having a first end and a second end; an inlet seal which is a solid provided with preformed passages for receiving cables, the inlet seal comprising at least one elastomer and having a front end and a back end inside the bushing; and a fastening device, the lead-in bushing comprises a metallic inlet collar provided with holes for wiring on the front end of the inlet seal and a metallic back collar provided with holes for wiring on the back end of the inlet seal, characterized in that the inlet collar and the back collar are integrated into the inlet seal.
Drill module for extraction drilling starting from a gallery below ground, wherein the drill module has two sideward directions (S1, S2), and wherein the drill module includes: - a body, - a drill unit having rotation and drive means for a drill string with a drill bit and being pivotally attached to the body for adjustability in a transverse plane, which is parallel to said sideward directions (S1, S2) for setting the drill unit in a chosen drilling direction, - power means arranged between the body and the drill unit for achieving said setting of the drill unit, - a first set of spanning means for action downwards towards a ground support for the drill module, - a second set of spanning means (31, 31', 32), which are positioned directed sideways for action essentially directed to sidewall portions of said gallery, characterized by - a third set of spanning means (36, 36') being attached to the drill unit and being directed at angle to the drilling direction for application against roof portions of said gallery for obtaining direct stabilization of the drill unit relative to these roof portions. - a body, - a drill unit having rotation and drive means for a drill string with a drill bit and being pivotally attached to the body for adjustability in a transverse plane, which is parallel to said sideward directions (S1, S2) for setting the drill unit in a chosen drilling direction, - power means arranged between the body and the drill unit for achieving said setting of the drill unit, - a first set of spanning means for action downwards towards a ground support for the drill module, - a second set of spanning means (31, 31', 32), which are positioned directed sideways for action essentially directed to sidewall portions of said gallery, characterized by - a third set of spanning means (36, 36') being attached to the drill unit and being directed at angle to the drilling direction for application against roof portions of said gallery for obtaining direct stabilization of the drill unit relative to these roof portions.
A sidelink capability sending method, characterized by comprising: generating, by a terminal device, a capability-reporting message, the capability-reporting message comprising capability information of the terminal device, and the capability information comprising a combination of Long Term Evolution, LTE, PC5 frequency bands and New Radio, NR, PC5 frequency bands; and sending, by the terminal device, the capability-reporting message; wherein the capability-reporting message is configured to indicate the capability information in the following way: the capability-reporting message indicating the combination of LTE PC5 frequency bands and NR PC5 frequency bands which is supported by the terminal device; wherein the combination of LTE PC5 frequency bands and NR PC5 frequency bands indicates that the frequency bands of LTE PC5 interfaces and the frequency bands of NR PC5 interfaces are combined to operate together; wherein the capability-reporting message comprises an identifier of each frequency band in the combination of LTE PC5 frequency bands and NR PC5 frequency bands. generating, by a terminal device, a capability-reporting message, the capability-reporting message comprising capability information of the terminal device, and the capability information comprising a combination of Long Term Evolution, LTE, PC5 frequency bands and New Radio, NR, PC5 frequency bands; and sending, by the terminal device, the capability-reporting message; wherein the capability-reporting message is configured to indicate the capability information in the following way: the capability-reporting message indicating the combination of LTE PC5 frequency bands and NR PC5 frequency bands which is supported by the terminal device; wherein the combination of LTE PC5 frequency bands and NR PC5 frequency bands indicates that the frequency bands of LTE PC5 interfaces and the frequency bands of NR PC5 interfaces are combined to operate together; wherein the capability-reporting message comprises an identifier of each frequency band in the combination of LTE PC5 frequency bands and NR PC5 frequency bands.
A method of generating a customized patient-specific negative contour of a customized patient-specific bone cutting block, the method comprising: determining, based on one or more medical images of the patient's bony anatomy, a cartilage thickness value indicative of the average thickness of the cartilage present on a relevant end of a patient's bone (92, 94), determining, based on one or more medical images of the patient's bony anatomy, a reference contour corresponding to a surface contour of a three-dimensional model of the relevant end of the patient's bone, determining (66, 68) a reference point in the three-dimensional model of the patient's bone, scaling the reference contour, based on the cartilage thickness value, to increase the distance between the reference point in the three-dimensional model and a point on the reference contour, and defining a customized patient-specific negative contour of the customized patient-specific bone cutting block using the scaled reference contour. determining, based on one or more medical images of the patient's bony anatomy, a cartilage thickness value indicative of the average thickness of the cartilage present on a relevant end of a patient's bone (92, 94), determining, based on one or more medical images of the patient's bony anatomy, a reference contour corresponding to a surface contour of a three-dimensional model of the relevant end of the patient's bone, determining (66, 68) a reference point in the three-dimensional model of the patient's bone, scaling the reference contour, based on the cartilage thickness value, to increase the distance between the reference point in the three-dimensional model and a point on the reference contour, and defining a customized patient-specific negative contour of the customized patient-specific bone cutting block using the scaled reference contour.
An apparatus for the pneumatic measurement of an object, comprising at least one measurement nozzle which is fed from a compressed air source via a measurement line; a pneumatic converter which is integrated into the measurement line and which is configured to generate an electrical output signal based on a pressure in the measurement line, said electrical output signal indicating a spacing of the measurement nozzle from a wall section of an object to be measured; and a switching element (23, 43) which is arranged upstream of the pneumatic converter in the measurement line and which can be switched into a release state releasing a fluid connection between the compressed air source and the measurement nozzle and into a blocking state blocking the fluid connection between the compressed air source and the measurement nozzle, wherein a low-pressure line (25, 40) which branches off from the measurement line upstream of the switching element (23, 43) and which has at least one restrictor element (31, 47) is provided to detect the presence of an object to be measured in the region of the measurement nozzle by means of a pneumatic measurement at a pressure reduced with respect to an object measurement, characterized in that the low-pressure line opens into the measurement line between the switching element and the pneumatic converter, wherein the switching element is electrically controllable and an electronic control device is provided which is configured to switch the switching element to and fro between the release state and the blocking state in dependence on an output signal of the pneumatic converter.
Electro-physical apparatus working at high frequency in a high voltage circuit (ref. 3 of Fig. 1) and having the ability to achieve an ionization and activation of molecular nitrogen to obtain nitrogen N* which reacts selectively with nitric oxide NO that is inside the engine exhausts, transforming it to nitrogen dioxide NO 2 as per formula: N* + 2NO ---> NO 2 + N 2 the apparatus comprising a ceramic insulation body (ref. 21 of Fig. 2), inside which multiple parallel metallic ducts (ref. 20 of Fig. 2) are placed: within each duct an electrical wire is placed (ref. 24 of Fig. 2); each parallel metallic duct has two segments consisting of straight ferromagnetic tubes (ref. 23 of Fig. 3) surrounded by magnetic rings (ref. 25 of Fig. 2); upstream of each straight segment is a convergent conical shaped segment; in each convergent conical shape segments (ref. 27 and ref. 28 of Fig. 2) of metallic ducts, a device (ref. 22 of Fig. 2 and Fig. 3) that converts the exhausts flow from laminar to a turbulent through a rotating whirling motion Ω, is placed.
A method of generating data blocks in a protocol layer performing a data retransmission function at a transmitting side in a wireless communication system, the method comprising: receiving a first data block from an upper layer; determining whether both a transmission buffer and a retransmission buffer become empty after transmitting a second data block including at least a part of the first data block; generating the second data block which includes a data field including at least the part of the first data block and a polling field having either a first value or a second value; and, transmitting the generated second data block to the receiving side, wherein the polling field includes the first value instructing the receiving side to transmit a status report which includes information on whether the receiving side has successfully received at least one data block transmitted from the transmitting side or not, when both of the transmission buffer and the retransmission buffer are determined to become empty after transmitting the second data block, and wherein a data block awaiting a status report from the receiving side in the retransmission buffer is excluded when determining whether the transmission buffer and the retransmission buffer are determined to become empty. receiving a first data block from an upper layer; determining whether both a transmission buffer and a retransmission buffer become empty after transmitting a second data block including at least a part of the first data block; generating the second data block which includes a data field including at least the part of the first data block and a polling field having either a first value or a second value; and, transmitting the generated second data block to the receiving side, wherein the polling field includes the first value instructing the receiving side to transmit a status report which includes information on whether the receiving side has successfully received at least one data block transmitted from the transmitting side or not, when both of the transmission buffer and the retransmission buffer are determined to become empty after transmitting the second data block, and wherein a data block awaiting a status report from the receiving side in the retransmission buffer is excluded when determining whether the transmission buffer and the retransmission buffer are determined to become empty.
Use of 2-(2H-benzotriazol-2-yl)-4-methyl-6-[2-methyl-3-[1,3,3,3-tetramethyl-1-[(trimethylsilyl)oxy]-1-disiloxanyl]propyl]phenol (INCI drometrizole trisiloxane) to reduce fabric staining of sunscreen compositions.
A computerized method (500, 700), implemented by a processing unit, for automated extended turndown of a combustor of a gas turbine engine (GT engine), the method comprising: receiving an input to perform automated extended turndown on the GT engine; monitoring (504, 702) one or more turndown criteria of the GT engine to determine if all of the one or more turndown criteria are met; upon determining that all of the one or more turndown criteria are met, temporarily reducing (506, 704) a transfer-out turbine reference temperature (TTRF) if a difference between a current turbine reference temperature (TTRF) and the transfer-out turbine reference temperature (TTRF) of the gas turbine engine (GT engine) is less than a configured amount; wherein the transfer-out turbine reference temperature (TTRF) is calculated by adding a first selected temperature margin to a minimum load turndown turbine reference temperature (TTRF); wherein the first selected temperature margin is selected based on a safety margin; sending (508, 706) a signal to reduce a load on the gas turbine engine (GT engine) by a specified amount; during and after the load has been reduced, monitoring (510, 708) the one or more turndown criteria to determine if any of the one or more turndown criteria are not met; upon determining that at least one of the one or more turndown criteria is not met after the load has been reduced, adjusting (512, 710) the load a selected number of times until the at least one turndown criteria is not met the selected number of times; and upon the at least one turndown criteria not being met the selected number of times, storing (514, 712) a minimum load turndown turbine reference temperature (TTRF) where all turndown criteria have been met for a selected compressor inlet temperature (CTIM); wherein upon determining if any of the one or more turndown criteria are met, again reducing the load by the specified amount or a modified specified amount.
A method for determining whether to treat a patient having cancer with a NEDD8-activating enzyme inhibitor, the method comprising the steps of: a) determining a quantitative measure of the gene expression levels for a marker gene set comprising at least two markers identified in Table 1 in a cancer cell sample obtained from the patient, wherein the marker gene expression level is determined by measuring the amount of nucleic acid of the marker genes in the marker set, wherein the nucleic acid is selected from the group consisting of SEQ ID NOs: 117 through 185 and fragments thereof, or wherein the nucleic acid is selected from the group consisting of SEQ ID NOs: 1 through 69, and splice variants thereof; b) using a partial least squares regression (PLSR)-based algorithm to generate a predictive outcome score based on the gene expression levels of the marker gene set; c) comparing the predictive outcome score to a cutoff value; and d) determining whether to treat the patient with the NAE inhibitor based on the comparison of the predictive outcome score with the cutoff value. a) determining a quantitative measure of the gene expression levels for a marker gene set comprising at least two markers identified in Table 1 in a cancer cell sample obtained from the patient, wherein the marker gene expression level is determined by measuring the amount of nucleic acid of the marker genes in the marker set, wherein the nucleic acid is selected from the group consisting of SEQ ID NOs: 117 through 185 and fragments thereof, or wherein the nucleic acid is selected from the group consisting of SEQ ID NOs: 1 through 69, and splice variants thereof; b) using a partial least squares regression (PLSR)-based algorithm to generate a predictive outcome score based on the gene expression levels of the marker gene set; c) comparing the predictive outcome score to a cutoff value; and d) determining whether to treat the patient with the NAE inhibitor based on the comparison of the predictive outcome score with the cutoff value.