mhurhangee/ep-ind-claims huggingface dataset:
A method for a network, comprising: the network configures a User Equipment, UE, with a plurality of Downlink, DL, Bandwidth Parts, BWPs, of a serving cell, wherein the plurality of DL BWPs comprises a first DL BWP with a first Sub-Carrier Spacing, SCS, and a second DL BWP with a second SCS, wherein the second SCS is different from the first SCS; the network configures the UE with a first monitoring occasion for indicating slot format indication, SFI, in the first DL BWP by indicating a first slot offset and a first slot periodicity; the network configures the UE with a second monitoring occasion for indicating SFI in the second DL BWP by indicating a second slot offset, and a second slot periodicity, such that a time period containing a number of consecutive slots with the second SCS associated with a slot format in the combination of slot formats indicated by a SFI index in the second monitoring occasion aligns slot boundary of a slot with the first SCS, and wherein the number is the ratio of the second SCS to the first SCS, and wherein the first monitoring occasion within the slot with the first SCS is not aligned with the second monitoring occasion within a slot with the second SCS. the network configures a User Equipment, UE, with a plurality of Downlink, DL, Bandwidth Parts, BWPs, of a serving cell, wherein the plurality of DL BWPs comprises a first DL BWP with a first Sub-Carrier Spacing, SCS, and a second DL BWP with a second SCS, wherein the second SCS is different from the first SCS; the network configures the UE with a first monitoring occasion for indicating slot format indication, SFI, in the first DL BWP by indicating a first slot offset and a first slot periodicity; the network configures the UE with a second monitoring occasion for indicating SFI in the second DL BWP by indicating a second slot offset, and a second slot periodicity, such that a time period containing a number of consecutive slots with the second SCS associated with a slot format in the combination of slot formats indicated by a SFI index in the second monitoring occasion aligns slot boundary of a slot with the first SCS, and wherein the number is the ratio of the second SCS to the first SCS, and wherein the first monitoring occasion within the slot with the first SCS is not aligned with the second monitoring occasion within a slot with the second SCS.
An integrated circuit including a power supply terminal intended to receive a power supply voltage, a reference terminal intended to receive a reference voltage, and at least one signal terminal intended to receive/transmit a signal, a first protection device which is coupled between said at least one signal terminal and the power supply terminal, at least one second protection device which is coupled between said at least one signal terminal and the reference terminal, the first protection device comprising a first MOS transistor including a first electrode coupled to said at least one signal terminal, a second electrode coupled to the power supply terminal, said at least one second protection device including a second MOS transistor including a first electrode coupled to said at least one signal terminal and a second electrode coupled to the reference terminal, the gates (G1, G2) of the first and second MOS transistors (TR1, TR2) being directly or indirectly coupled to the reference terminal, and the substrates (sbl, sb2) of the first and second MOS transistors (TR1, TR2) being coupled to the reference terminal via a common resistor characterised in that the common resistor is distinct from said substrates (sbl, sb2).
A compound having a structure according to Formula I R 1 is alkoxy, OR a, SR a, or -S 2 R a, wherein R a is alkyl, or aryl optionally substituted with alkyl, haloalkyl, alkoxy, and/or halogen;; R 2, R 3, are C 1 -C 6 alkyl; R 4 is hydrogen or C 1 -C 6 alkyl; and R 5 is pyridinyl optionally substituted with halogen R 1 is alkoxy, OR a, SR a, or -S 2 R a, wherein R a is alkyl, or aryl optionally substituted with alkyl, haloalkyl, alkoxy, and/or halogen;; R 2, R 3, are C 1 -C 6 alkyl; R 4 is hydrogen or C 1 -C 6 alkyl; and R 5 is pyridinyl optionally substituted with halogen
An electromechanical integrated braking assistance device, comprising an electrical motor having a position sensor and an ECU, an oil holder, a braking main cylinder, an assistant force generating portion, and a pedal input rod, wherein an absolute displacement sensor or a relative displacement sensor is connected to the pedal input rod, and an end of the pedal input rod is inserted into the assistant force generating portion; a lead screw is sleeved over the pedal input rod, and a ball nut is sleeved over the lead screw; a ball nut bushing is fixed to the ball nut by being sleeved over the ball nut; a driven gear is fixed to the ball nut bushing by being sleeved over the ball nut bushing; and the electric motor meshes with the driven gear via a gear transmission mechanism or a belt mechanism; characterized in that an end of the lead screw which passes through the ball nut bushing has an aperture, into which a feedback disc is installed and an anti-rotation rod is installed by being inserted radially, wherein an end of the feedback disc is connected to an end of an output rod which is coaxially arranged with the lead screw inside the assistant force generating portion, and another end of the output rod extends into the braking main cylinder and is connected to a piston of the braking main cylinder; and an upper end of the braking main cylinder is connected with the oil holder; wherein restoring springs are sleeved over both the pedal input rod and the output rod; and wherein a step is arranged at the outer side of an end of the ball nut bushing which is close to the feedback disc, a plurality of axially arranged sliding grooves are evenly provided around the circumference of the ball nut bushing, and a central hole of the driven gear is provided with protrusions for mating with the sliding grooves, wherein the driven gear abuts against the step and the protrusions are embedded into corresponding sliding grooves.
A controller for controlling a control target, the controller comprising: an obtaining unit that is configured to obtain, from an external device including a communication device that is configured to communicate with the controller, software to be used by the controller, by downloading the software from the communication device communicatively connected to the controller; and a processor that is configured to execute the software, wherein the software includes a generation module that is configured to generate an execution right for the software from first unique information for uniquely identifying the controller or the external device, and a check module that is configured to generate second unique information from the execution right at a predetermined timing after the generation of the execution right, and that is configured to prohibit use of the software when the second unique information does not coincide with the first unique information, wherein the processor is further configured to delete the execution right when transferring the obtained software from the controller to the external device to delete the generation module and the check module when transferring the obtained software from the controller to the external device. an obtaining unit that is configured to obtain, from an external device including a communication device that is configured to communicate with the controller, software to be used by the controller, by downloading the software from the communication device communicatively connected to the controller; and a processor that is configured to execute the software, wherein the software includes a generation module that is configured to generate an execution right for the software from first unique information for uniquely identifying the controller or the external device, and a check module that is configured to generate second unique information from the execution right at a predetermined timing after the generation of the execution right, and that is configured to prohibit use of the software when the second unique information does not coincide with the first unique information, a generation module that is configured to generate an execution right for the software from first unique information for uniquely identifying the controller or the external device, and a check module that is configured to generate second unique information from the execution right at a predetermined timing after the generation of the execution right, and that is configured to prohibit use of the software when the second unique information does not coincide with the first unique information, wherein the processor is further configured to delete the execution right when transferring the obtained software from the controller to the external device to delete the generation module and the check module when transferring the obtained software from the controller to the external device.
A traveling wave optical modulator comprising: tandem optical (206, 208) and radio frequency (230, 232, 234, 236) paths, the optical path being configured to support an optical signal, and the RF path being a segmented RF path configured to support an RF signal, wherein the RF path has a first RF segment alongside a first length of the optical path, and a second RF segment alongside a second length of the optical path, wherein the first RF segment is configured to provide the RF signal to the second RF segment; and an RF amplifier positioned between the first and second segments of the RF path coupled to an input of the second RF segment, wherein the segmented radio frequency path is disposed, at least in part, alongside the optical path. tandem optical (206, 208) and radio frequency (230, 232, 234, 236) paths, the optical path being configured to support an optical signal, and the RF path being a segmented RF path configured to support an RF signal, wherein the RF path has a first RF segment alongside a first length of the optical path, and a second RF segment alongside a second length of the optical path, wherein the first RF segment is configured to provide the RF signal to the second RF segment; and an RF amplifier positioned between the first and second segments of the RF path coupled to an input of the second RF segment, wherein the segmented radio frequency path is disposed, at least in part, alongside the optical path.
A nicotine lozenge for oral administration comprising: nicotine polacrilex; at least one high viscosity, water soluble, synthetic or semi synthetic, non-ionic polymer, which is an alkylcellulose polymer having a viscosity of between about 2,000 cps to about 6,000 cps as measured by Brookfield type LV Model; and at least one low viscosity, water soluble, synthetic or semi synthetic, non-ionic polymer, which is an alkylcellulose polymer having a viscosity of between about 50 cps and about 150 cps as measured by Capillary Viscometer Methods 911. nicotine polacrilex; at least one high viscosity, water soluble, synthetic or semi synthetic, non-ionic polymer, which is an alkylcellulose polymer having a viscosity of between about 2,000 cps to about 6,000 cps as measured by Brookfield type LV Model; and at least one low viscosity, water soluble, synthetic or semi synthetic, non-ionic polymer, which is an alkylcellulose polymer having a viscosity of between about 50 cps and about 150 cps as measured by Capillary Viscometer Methods 911.
A hearing device for improving sound processing, the hearing device comprises: - a processing unit configured to provide a processed output signal for compensating a hearing loss of a user; - a microphone connected to the processing unit for converting an audio input signal into a microphone output signal to form an input signal to the processing unit; - a receiver connected to the processing unit for converting the processed output signal into an audio output signal; - a wireless radio receiver unit connected to the processing unit for receiving information from a wireless network (26, 28, 30); wherein the processing unit is configured to determine a location (32, 34, 36) of the wireless network (26, 28, 30) based on the information received from the wireless network (26, 28, 30); wherein the processing unit is configured to establish a sound processing profile based on the determined location (32, 34, 36) of the wireless network (26, 28, 30); wherein the processing unit is configured to provide that the processed output signal is processed according to the established sound processing profile; characterized in that the wireless network (26, 28, 30) is a Wi-Fi network, wherein the location (32, 34, 36) of the wireless network (26, 28, 30) is determined based on a service set identification (SSID) (40, 42, 44) of the Wi-Fi network (26, 28, 30); and wherein the processing unit is configured to prevent that the processed output signal is processed according to the established sound processing profile based on the location of the wireless network if: - the number of different wireless networks present at the same time exceeds a predefined number; and/or - the number of different wireless networks present within a predefined time interval exceeds a predefined number and/or - the information received from a number of different wireless networks establishes sound processing profiles which are conflicting/diverging/does not correspond. - a processing unit configured to provide a processed output signal for compensating a hearing loss of a user; - a microphone connected to the processing unit for converting an audio input signal into a microphone output signal to form an input signal to the processing unit; - a receiver connected to the processing unit for converting the processed output signal into an audio output signal; - a wireless radio receiver unit connected to the processing unit for receiving information from a wireless network (26, 28, 30); - the number of different wireless networks present at the same time exceeds a predefined number; and/or - the number of different wireless networks present within a predefined time interval exceeds a predefined number and/or - the information received from a number of different wireless networks establishes sound processing profiles which are conflicting/diverging/does not correspond.
A method of operation of a user equipment device in a cellular communications network, comprising: detecting a timing signal from a serving base station; obtaining timing information from at least one other base station, comprising detecting a timing signal transmitted by the at least one other base station; setting a value for a transmission time offset (T 1) based on measuring a timing difference, D 2 - D 1, between the detected timing signals from the serving base station and the at least one other base station, subtracting the timing difference, D 2 - D 1, from a maximum propagation delay parameter, PD max i, and adding a cyclic prefix, CP; and transmitting signals to the serving base station using the set value for the transmission time offset (T 1). detecting a timing signal from a serving base station; obtaining timing information from at least one other base station, comprising detecting a timing signal transmitted by the at least one other base station; setting a value for a transmission time offset (T 1) based on measuring a timing difference, D 2 - D 1, between the detected timing signals from the serving base station and the at least one other base station, subtracting the timing difference, D 2 - D 1, from a maximum propagation delay parameter, PD max i, and adding a cyclic prefix, CP; and transmitting signals to the serving base station using the set value for the transmission time offset (T 1).
A spectrometer, comprising: a 1xN optical beam splitter (110, 500) optically coupled to receive a source light beam and configured to divide the source light beam into a plurality of input beams (115a, 115b,...115N); a plurality of scanning interferometers that are synchronized with respect to each other, said plurality of interferometers are optically coupled in parallel and mechanically coupled in parallel or electrically controlled, in parallel, each of the plurality of interferometers having a respective beam splitter (810a, 810b,..., 810N), and being optically coupled to receive a respective one of the plurality of input beams (115a, 115b,...115N) and configured to direct the respective input beam (115a, 115b,...115N) along a respective optical path, each interferometer being arranged to provide scanning of the same optical path difference window, to produce a respective one of a plurality of identical outputs (125a, 125b,... 125N); and a single detector optically coupled to simultaneously receive the plurality of identical outputs (125a, 125b,... 125N) and configured to produce an interferogram as a result of a summation of the plurality of identical outputs (125a, 125b,... 125N). a 1xN optical beam splitter (110, 500) optically coupled to receive a source light beam and configured to divide the source light beam into a plurality of input beams (115a, 115b,...115N); a plurality of scanning interferometers that are synchronized with respect to each other, said plurality of interferometers are optically coupled in parallel and mechanically coupled in parallel or electrically controlled, in parallel, each of the plurality of interferometers having a respective beam splitter (810a, 810b,..., 810N), and being optically coupled to receive a respective one of the plurality of input beams (115a, 115b,...115N) and configured to direct the respective input beam (115a, 115b,...115N) along a respective optical path, each interferometer being arranged to provide scanning of the same optical path difference window, to produce a respective one of a plurality of identical outputs (125a, 125b,... 125N); and a single detector optically coupled to simultaneously receive the plurality of identical outputs (125a, 125b,... 125N) and configured to produce an interferogram as a result of a summation of the plurality of identical outputs (125a, 125b,... 125N).
Method for producing a porous filter comprising least two layers for a filter pipette tip with a small tube with a relatively large aperture at one end for attaching to a pipette, a relatively small aperture at the other end for the passage of liquid and a through-channel between the large aperture and the small aperture and a porous filter arranged in the through-channel filling up a portion of the through-channel and comprising at least two layers (11, 12) arranged in series in the direction of the through-channel of which a fine-pore layer has a pore size of a maximum of approximately 20μm and a coarse-pore layer a pore size of approximately 20 to 50μm, the two layers (11, 12) having different pore sizes, wherein • a plastic granulate for a first layer is introduced into a mold and compressed, • then a plastic granulate for a second layer is introduced into the mold and compressed, • the layering is sintered and • the filter body is then ejected from the mold. • a plastic granulate for a first layer is introduced into a mold and compressed, • then a plastic granulate for a second layer is introduced into the mold and compressed, • the layering is sintered and • the filter body is then ejected from the mold.
Electrically operated food processor comprising a cooking vessel and a lid for the cooking vessel, it being possible to lock the lid to the cooking vessel in the closed position, the cooking vessel further comprising a cooking vessel base and a vessel wall extending upwards from the cooking vessel base, the vessel wall transitions into a radially projecting vessel edge, the lid comprises a lid edge which overlaps the vessel edge in the closed position, and the locking mechanism is formed by a locking element provided to overlap the lid, which locking element can be moved from a release position into the locking position and vice versa by means of rotation about an axis (y), the locking element being formed in an elongate manner in the extension direction of the axis (y) and engaging under the vessel edge and overlapping the lid edge in the locking position, characterised in that, in the locking state, based on a cross section, a support region of the locking element engaging under the vessel edge extends so as to be laterally offset from a contact region of the locking element with the outer surface of the lid, in each case with regard to the actual cooperation of said support region with the vessel edge, the contact with the outer surface of the lid having a greater radial extent than the contact of the support region with the vessel edge.
Method for generating and transmitting data from a transmitter to a receiver in the form of a road user, wherein the data are based on a geographical environment model of the transmitter, wherein the geographical environment model comprises objects in the geographical environment of the transmitter that are relevant to the road user; wherein method steps at the transmitter comprise: acquiring parameters of a transmission system for transmitting the data and/or traffic-relevant parameters of the transmitter; wherein the parameters of the transmission system comprise a reachability of at least one receiver (420, 480); generating the data on the basis of the objects relevant to the road user; and transmitting the data on the basis of the parameters of the transmission system and/or the traffic-relevant parameters of the transmitter, wherein the geographical environment model of the transmitter comprises object recognition on the basis of local sensor data of the transmitter and/or on the basis of sensor data of other road users or infrastructure, wherein the object recognition comprises data for a probability of existence of an object. acquiring parameters of a transmission system for transmitting the data and/or traffic-relevant parameters of the transmitter; wherein the parameters of the transmission system comprise a reachability of at least one receiver (420, 480); generating the data on the basis of the objects relevant to the road user; and transmitting the data on the basis of the parameters of the transmission system and/or the traffic-relevant parameters of the transmitter, wherein the geographical environment model of the transmitter comprises object recognition on the basis of local sensor data of the transmitter and/or on the basis of sensor data of other road users or infrastructure, wherein the object recognition comprises data for a probability of existence of an object.
A method for transmitting a broadcast signal, using an access network, to a plurality of terminals of a bidirectional wireless communication system, said method comprising: - forming an information signal SI1 from broadcast information destined for said terminals, - forming a pilot signal SP, - transmitting a broadcast signal comprising the information signal SI1 and the pilot signal SP, said information signal SI1 and said pilot signal SP being transmitted on different respective center frequencies having a predetermined frequency gap ΔF1. - forming an information signal SI1 from broadcast information destined for said terminals, - forming a pilot signal SP, - transmitting a broadcast signal comprising the information signal SI1 and the pilot signal SP, said information signal SI1 and said pilot signal SP being transmitted on different respective center frequencies having a predetermined frequency gap ΔF1.