mhurhangee/ep-ind-claims huggingface dataset:
A signal processing method, comprising: sending, by a full-duplex device, a first data signal and receiving a second data signal in a first resource block RB of a first subframe; and further sending, by the full-duplex device, a first reference signal according to first reference information and receiving a second reference signal according to second reference information in the first RB, wherein the first reference signal is used for demodulating the first data signal, the second reference signal is used for demodulating the second data signal, and the first reference information is different from the second reference information, wherein the first reference information comprises: a time-frequency resource location occupied by the first reference signal, and sequence information of the first reference signal; and the second reference information comprises: a time-frequency resource location occupied by the second reference signal, and sequence information of the second reference signal. sending, by a full-duplex device, a first data signal and receiving a second data signal in a first resource block RB of a first subframe; and further sending, by the full-duplex device, a first reference signal according to first reference information and receiving a second reference signal according to second reference information in the first RB, wherein the first reference signal is used for demodulating the first data signal, the second reference signal is used for demodulating the second data signal, and the first reference information is different from the second reference information, wherein the first reference information comprises: a time-frequency resource location occupied by the first reference signal, and sequence information of the first reference signal; and the second reference information comprises: a time-frequency resource location occupied by the second reference signal, and sequence information of the second reference signal.
An apparatus for the treatment of wastewater comprising the following elements: (i) a primary treatment module comprising at least one solids separation filter; (ii) a secondary treatment module comprising at least one microflotation unit and at least one oxidation treatment unit placed downstream of said at least one microflotation unit, wherein said at least one oxidation treatment unit comprises an advanced oxidation process module for performing chemical processes, said advanced oxidation process module performing an ozone and hypochlorite treatment; (iii) a tertiary treatment module including at least one membrane filtration unit; said apparatus being provided with means (101,201) for sequentially flowing wastewater from element (i) to (iii). (i) a primary treatment module comprising at least one solids separation filter; (ii) a secondary treatment module comprising at least one microflotation unit and at least one oxidation treatment unit placed downstream of said at least one microflotation unit, wherein said at least one oxidation treatment unit comprises an advanced oxidation process module for performing chemical processes, said advanced oxidation process module performing an ozone and hypochlorite treatment; (iii) a tertiary treatment module including at least one membrane filtration unit;
A thermostatic valve with a main valve (10, 110, 210) and a crossover valve (12, 112, 212) which delimit a mixing chamber (14, 114, 214, 314), a thermostatic working element which is arranged in the mixing chamber (14, 114, 214, 314), comprising a housing and a working piston which is movable relative to the housing, a valve element (4, 104, 204) to be taken along by the housing or the working piston against the force of a return spring (5, 105, 205) and a counter bearing (6, 106, 206, 306) accepting the return spring (5, 105, 205), characterised in that the counter bearing (6, 106, 206, 306) is designed as a valve seat for the crossover valve (12, 112, 212) and the crossover valve (12, 112, 212) is open or closed depending on a working position of the valve element (4, 104, 204) and the valve element (4, 104, 204) is, at least in sections, designed as a slide for closing the crossover valve (12, 112, 212), wherein the slide is an element with a tubular region, wherein the thermostatic working element is accepted by a valve housing and a valve seat for the main valve (10, 110, 210) is designed on the valve housing, the valve seat working together with a valve disk (41, 141, 241) of the valve element (4, 104, 204), wherein the counter bearing (6, 106, 206, 306) is firmly connected to the valve housing, wherein the counter bearing (6, 106, 206) has locking and connecting arms (62, 162, 262) extending in the longitudinal direction in order to be connected to the valve housing.
An intravaginal device comprising a continuous outer shell that defines the entire exterior surface of the intravaginal device; a hollow interior and an aperture to the hollow interior; a withdrawal assembly; and an obstruction that at least partially blocks the aperture; wherein the withdrawal assembly comprises a withdrawal member that crosses through the aperture to the hollow interior; wherein the intravaginal device comprises two or more protuberances that extend from an inner wall defining the hollow interior; and wherein the obstruction is contained in the hollow interior by the protuberances; characterized in that the two protuberances meet at the longitudinal axis or wherein the two protuberances meet at a point between the longitudinal axis and the inner wall along the transverse axis or wherein the two protuberances are located at different points along the longitudinal axis. a continuous outer shell that defines the entire exterior surface of the intravaginal device; a hollow interior and an aperture to the hollow interior; a withdrawal assembly; and an obstruction that at least partially blocks the aperture; wherein the withdrawal assembly comprises a withdrawal member that crosses through the aperture to the hollow interior; wherein the intravaginal device comprises two or more protuberances that extend from an inner wall defining the hollow interior; and wherein the obstruction is contained in the hollow interior by the protuberances; characterized in that the two protuberances meet at the longitudinal axis or wherein the two protuberances meet at a point between the longitudinal axis and the inner wall along the transverse axis or wherein the two protuberances are located at different points along the longitudinal axis.
A method of controlling a parking brake system, the method comprising: measuring voltage of the parking brake system during creation of a parking brake apply or release of the parking brake apply; measuring current of the parking brake system during the creation of the parking brake apply or the release of the parking brake apply; estimating a position of a motor, estimating a speed of the motor, and estimating a current draw of the motor from a source using the measured voltage and the measured current; characterised by estimating a parking brake force with the estimated position of the motor; correcting the estimated position of the motor with the measured current, correcting the estimated speed of the motor with the measured current, and correcting the estimated current draw of the motor with the measured current, and/or correcting the estimated parking brake force with the corrected estimated position of the motor, the corrected speed of the motor, and the corrected current draw of the motor; and determining the creation of the parking brake apply with the corrected parking brake force and/or determining the release of the parking brake apply with the corrected estimated position of the motor. measuring voltage of the parking brake system during creation of a parking brake apply or release of the parking brake apply; measuring current of the parking brake system during the creation of the parking brake apply or the release of the parking brake apply; estimating a position of a motor, estimating a speed of the motor, and estimating a current draw of the motor from a source using the measured voltage and the measured current; characterised by estimating a parking brake force with the estimated position of the motor; correcting the estimated position of the motor with the measured current, correcting the estimated speed of the motor with the measured current, and correcting the estimated current draw of the motor with the measured current, and/or correcting the estimated parking brake force with the corrected estimated position of the motor, the corrected speed of the motor, and the corrected current draw of the motor; and determining the creation of the parking brake apply with the corrected parking brake force and/or determining the release of the parking brake apply with the corrected estimated position of the motor.
Aircraft comprising a propulsion system which comprises: • a bypass turbine engine comprising: ∘ an inlet for receiving air, ∘ an outlet for expelling air, ∘ an annular separator for obtaining between the inlet and the outlet, a first passage for a primary air stream and a second concentric passage external to the first passage for a secondary air stream, and ∘ a low-pressure compressor situated in the first passage to compress the primary air stream; • an aqueous liquid sprayer comprising a first spraying outlet situated between the inlet of the turbine engine and the low-pressure compressor in the first passage to inject an aqueous liquid therein; • first fixing means fixing the sprayer to the inside of the turbine engine; • a tank for containing the aqueous liquid and being housed and fixed in the aircraft; • second fixing means fixing the tank in the aircraft; • a pipe fluidically connecting the tank to the sprayer; and • a control unit for controlling an aqueous fluid flow sprayed by the sprayer, characterised in that it comprises a heating means for heating the aqueous liquid in the turbine engine. • a bypass turbine engine comprising: ∘ an inlet for receiving air, ∘ an outlet for expelling air, ∘ an annular separator for obtaining between the inlet and the outlet, a first passage for a primary air stream and a second concentric passage external to the first passage for a secondary air stream, and ∘ a low-pressure compressor situated in the first passage to compress the primary air stream; ∘ an inlet for receiving air, ∘ an outlet for expelling air, ∘ an annular separator for obtaining between the inlet and the outlet, a first passage for a primary air stream and a second concentric passage external to the first passage for a secondary air stream, and ∘ a low-pressure compressor situated in the first passage to compress the primary air stream; • an aqueous liquid sprayer comprising a first spraying outlet situated between the inlet of the turbine engine and the low-pressure compressor in the first passage to inject an aqueous liquid therein; • first fixing means fixing the sprayer to the inside of the turbine engine; • a tank for containing the aqueous liquid and being housed and fixed in the aircraft; • second fixing means fixing the tank in the aircraft; • a pipe fluidically connecting the tank to the sprayer; and • a control unit for controlling an aqueous fluid flow sprayed by the sprayer,
A method of generating an augmented reality image, the method comprising: receiving a front image obtained by at least one camera, by at least one processor; calibrating the front image by the at least one processor; and configuring an augmented reality navigation screen including at least one augmented reality,AR, graphic object and the calibrated front image by the at least one processor; wherein the augmented reality navigation screen includes an AR camera surface and an AR GUI surface, wherein calibrating the front image comprises: determining an unnecessary area of the front image; cropping the unnecessary area in the front image; displaying the cropped image on the AR camera surface; and rendering an AR GUI included in the AR GUI surface based on the cropped image, wherein calibrating the front image comprises: determining, by the at least one processor, a balance of the front image, based on a calibration factor data, and calibrating the front image, by the at least one processor, based on the balance of the front image. receiving a front image obtained by at least one camera, by at least one processor; calibrating the front image by the at least one processor; and configuring an augmented reality navigation screen including at least one augmented reality,AR, graphic object and the calibrated front image by the at least one processor; wherein the augmented reality navigation screen includes an AR camera surface and an AR GUI surface, wherein calibrating the front image comprises: determining an unnecessary area of the front image; cropping the unnecessary area in the front image; displaying the cropped image on the AR camera surface; and rendering an AR GUI included in the AR GUI surface based on the cropped image, wherein calibrating the front image comprises: determining, by the at least one processor, a balance of the front image, based on a calibration factor data, and calibrating the front image, by the at least one processor, based on the balance of the front image. determining an unnecessary area of the front image; cropping the unnecessary area in the front image; displaying the cropped image on the AR camera surface; and rendering an AR GUI included in the AR GUI surface based on the cropped image, wherein calibrating the front image comprises: determining, by the at least one processor, a balance of the front image, based on a calibration factor data, and calibrating the front image, by the at least one processor, based on the balance of the front image. determining, by the at least one processor, a balance of the front image, based on a calibration factor data, and calibrating the front image, by the at least one processor, based on the balance of the front image.
A fire alarm device that wirelessly communicates with a slave device and operates as a master device of the slave device, the fire alarm device comprising: a first monitoring unit configured to perform monitoring of the slave device at regular or irregular time intervals to determine whether the slave device is in an abnormal condition; and a first alarm unit configured to issue an alarm indicating that the slave device is in an abnormal condition when the first monitoring unit determines that the slave device is in an abnormal condition, characterized in that: the first monitoring unit is configured to determine, in the monitoring, that the slave device is in an abnormal condition when radio waves cannot be received from the slave device, but after a signal indicating battery exhaustion is received from the slave device, the first monitoring unit is configured not to determine, in the monitoring, that the slave device is in an abnormal condition even when radio waves cannot be received from the slave device. a first monitoring unit configured to perform monitoring of the slave device at regular or irregular time intervals to determine whether the slave device is in an abnormal condition; and a first alarm unit configured to issue an alarm indicating that the slave device is in an abnormal condition when the first monitoring unit determines that the slave device is in an abnormal condition, characterized in that: the first monitoring unit is configured to determine, in the monitoring, that the slave device is in an abnormal condition when radio waves cannot be received from the slave device, but after a signal indicating battery exhaustion is received from the slave device, the first monitoring unit is configured not to determine, in the monitoring, that the slave device is in an abnormal condition even when radio waves cannot be received from the slave device. the first monitoring unit is configured to determine, in the monitoring, that the slave device is in an abnormal condition when radio waves cannot be received from the slave device, but after a signal indicating battery exhaustion is received from the slave device, the first monitoring unit is configured not to determine, in the monitoring, that the slave device is in an abnormal condition even when radio waves cannot be received from the slave device.
A host cell prepared by transducing a hematopoietic cell with a lentiviral expression vector, the lentiviral expression vector comprising a first nucleic acid sequence encoding an inhibitory nucleic acid capable of reducing expression of an HIV CCR5 co-receptor, wherein the inhibitory nucleic acid is a small interfering RNA (siRNA) or a short hairpin RNA (shRNA) comprising a sequence that is substantially complementary to at least a portion of a nucleic acid encoding the HIV CCR5 co-receptor, and a second nucleic acid sequence encoding an HIV fusion inhibitor protein.
A method of processing SAR imagery data for automatic target detection based on change detection, the SAR imagery data comprising first SAR image data and second SAR image data, the method comprising: determining variances for the first SAR image data and for the second SAR image data; determining variance ratio data using the variances of the first SAR image data and the second SAR image data; and processing, for use in change detection, the determined variance ratio data by making use of the F-distribution, wherein the F-distribution comprises using the F-distribution to determine probabilities for the determined variance ratio data. determining variances for the first SAR image data and for the second SAR image data; determining variance ratio data using the variances of the first SAR image data and the second SAR image data; and processing, for use in change detection, the determined variance ratio data by making use of the F-distribution, wherein the F-distribution comprises using the F-distribution to determine probabilities for the determined variance ratio data.
Connecting element for contacting a shielding of a power cable, said connecting element comprising: an electrically conductive contact element for electrically contacting said shielding, wherein said contact element comprises a plurality of electrically conductive contact segments which are interconnected by means of at least one hinge element wherein at least one clearance defines the contact segments and the at least one hinge element, characterized by said contact element having a contact region which in the mounted state is pressed onto said shielding layer of the power cable, and a connecting region for connecting a connecting lead, the connecting region being adjacent to said contact region, wherein said hinge elements are arranged only in the contact region, wherein said contact segments are separated in the connecting region from each other by elongated cut-outs. an electrically conductive contact element for electrically contacting said shielding, wherein said contact element comprises a plurality of electrically conductive contact segments which are interconnected by means of at least one hinge element wherein at least one clearance defines the contact segments and the at least one hinge element, characterized by said contact element having a contact region which in the mounted state is pressed onto said shielding layer of the power cable, and a connecting region for connecting a connecting lead, the connecting region being adjacent to said contact region, wherein said hinge elements are arranged only in the contact region, wherein said contact segments are separated in the connecting region from each other by elongated cut-outs.
An intervertebral implant including a body configured to be inserted into an intervertebral space, a hollow space provided in the body and configured to accommodate an engagement portion of a drive shaft of an insertion device therein and being accessible from outside the body through an opening, wherein the opening is elongate so as to permit the intervertebral implant and the insertion device to pivot relative to each other around an axis of rotation at least from a first angular position to a second angular position when the engagement portion is within the hollow space, and wherein the intervertebral implant further comprises at least a first abutment surface and a second abutment surface each configured to engage an abutment surface formed at the insertion device to provide a form-fit connection between the intervertebral implant (1, 1000) and the insertion device when the insertion device is tightened against the intervertebral implant in the first angular position or in the second angular position, wherein the first abutment surface and the second abutment surface at the intervertebral implant (1, 1000) comprises a planar surface, and wherein the hollow space comprises a spherical portion and wherein the engagement portion has a spherical portion having a radius of the sphere matching that of the spherical portion of the hollow space. a body configured to be inserted into an intervertebral space, a hollow space provided in the body and configured to accommodate an engagement portion of a drive shaft of an insertion device therein and being accessible from outside the body through an opening, wherein the opening is elongate so as to permit the intervertebral implant and the insertion device to pivot relative to each other around an axis of rotation at least from a first angular position to a second angular position when the engagement portion is within the hollow space, and wherein the intervertebral implant further comprises at least a first abutment surface and a second abutment surface each configured to engage an abutment surface formed at the insertion device to provide a form-fit connection between the intervertebral implant (1, 1000) and the insertion device when the insertion device is tightened against the intervertebral implant in the first angular position or in the second angular position, wherein the first abutment surface and the second abutment surface at the intervertebral implant (1, 1000) comprises a planar surface, and wherein the hollow space comprises a spherical portion and wherein the engagement portion has a spherical portion having a radius of the sphere matching that of the spherical portion of the hollow space.
A method of a User Equipment, in the following also referred to as UE, comprising: receiving a configuration for monitoring downlink control information, in the following also referred to as DCI, indicative of a slot format, wherein the configuration indicates the UE to monitor a first DCI in a first monitoring occasion associated with a slot and to monitor a second DCI in a second monitoring occasion, wherein the first DCI is indicative of the slot format; and characterized by: performing, based upon the second DCI, at least one of configured transmission and configured reception on one or more symbols when the first DCI is not received in the first monitoring occasion, the second DCI is received in the second monitoring occasion and the second DCI is indicative of the slot format for the slot, wherein the one or more symbols are configured as flexible by a Radio Resource Control, in the following also referred to as RRC, configuration and the one or more symbols are in the slot. receiving a configuration for monitoring downlink control information, in the following also referred to as DCI, indicative of a slot format, wherein the configuration indicates the UE to monitor a first DCI in a first monitoring occasion associated with a slot and to monitor a second DCI in a second monitoring occasion, wherein the first DCI is indicative of the slot format; and characterized by: performing, based upon the second DCI, at least one of configured transmission and configured reception on one or more symbols when the first DCI is not received in the first monitoring occasion, the second DCI is received in the second monitoring occasion and the second DCI is indicative of the slot format for the slot, wherein the one or more symbols are configured as flexible by a Radio Resource Control, in the following also referred to as RRC, configuration and the one or more symbols are in the slot.