mhurhangee/ep-ind-claims huggingface dataset:
A method for determining that a user equipment has not correctly received a carrier activation or deactivation command, comprising, at the user equipment: identifying a number of resources for channel state information within a payload (50, 52, 54, 56, 58) of a physical uplink control channel or physical uplink shared channel, each of said resources being allocatable for storing channel state information for a single respective carrier; encoding channel state information for one or more carriers activated on the user equipment into the resources, wherein said encoding is performed such that the same overall payload length is maintained regardless of the number of said one or more carriers by, when the number of the one or more carriers is less than the number of resources, using repetition encoding to duplicate the channel state information for at least one of the one or more carriers into the allocated resources for channel state information; and communicating said channel state information to a base station; the method further comprising, at the base station: receiving said payload from the user equipment; and when the resources include duplicated channel state information, determining that the user equipment has activated a number of carriers that is less than the number of resources. identifying a number of resources for channel state information within a payload (50, 52, 54, 56, 58) of a physical uplink control channel or physical uplink shared channel, each of said resources being allocatable for storing channel state information for a single respective carrier; encoding channel state information for one or more carriers activated on the user equipment into the resources, wherein said encoding is performed such that the same overall payload length is maintained regardless of the number of said one or more carriers by, when the number of the one or more carriers is less than the number of resources, using repetition encoding to duplicate the channel state information for at least one of the one or more carriers into the allocated resources for channel state information; and communicating said channel state information to a base station; the method further comprising, at the base station: receiving said payload from the user equipment; and when the resources include duplicated channel state information, determining that the user equipment has activated a number of carriers that is less than the number of resources. receiving said payload from the user equipment; and when the resources include duplicated channel state information, determining that the user equipment has activated a number of carriers that is less than the number of resources.
A rotor iron core for an inner rotor, comprising a rotor body and permanent magnet slots disposed on the rotor body; wherein a fixing hole for fixing a rotor punched segment and a flux isolating hole are disposed on a rotor magnetic pole between two adjacent permanent magnet slots; the flux isolating hole is disposed outside the fixing hole in a radial direction of the rotor body; a width of the flux isolating hole smoothly increases in a direction from an outer side of the rotor body toward a center thereof; characterized in that, an angle formed by two lines respectively connecting the center of the rotor body and occupied by an outside wall of the flux isolating hole is A, wherein the outside wall of the flux isolating hole is a curved surface concentrical with the rotor body, and the outside wall of the flux isolating hole is adjacent to the outer side of the rotor body, and an angle formed by two lines respectively connecting the center of the rotor body and occupied by a single magnetic pole of the rotor iron core is B; and wherein: 0.15 ≥ A / B ≥ 0.02.
A method of irrigating a field, the method comprising: acquiring a calibration water matric potential for the field; and irrigating the field during an active irrigation period with an amount of water responsive to the value of the calibration matric potential, the method being characterised in that acquiring a calibration water matric potential comprises acquiring a calibration water matric potential at least once a day when plants in the field exhibit relatively small water demand.
A microbiological method for determining traces of antibiotics in biological samples with a volume of 10-20 microliter, which comprises determining the minimum inhibitory concentration of an antibiotic selected from the group consisting of minocycline, ciprofloxacin, kanamycin, tetracycline and oxacillin versus Staphylococcus aureus, by growing said bacteria separately in Mueller-Hinton broth, to subsequently dilute said cultures to 0.5 McFarland standard (1.5 x 10 8 cells/mL) and adding afterwards said antibiotics and incubating at 37°C for 18 hours and then determining absorbency and expressing the results as the percentage of inhibition relative to the control containing the biological sample, selected in turn from urine, blood, synovial fluid, eye aqueous humour or cerebrospinal fluid, and the bacterial culture; obtaining the curve representing the percentage of bacterial growth inhibition versus antibiotic concentration, and fitting by the "Four Parameter Logistic Curve " curve fitting analysis, to yield the antibiotic concentration values in the biological sample.
A method performed by a system of a wireless communication network for determining transmission conditions for a real-time media flow to be transmitted wirelessly to a first User Equipment, UE, residing in a first cell served by a first base station of the network, the method comprising: obtaining radio network statistics of the first cell, the radio network statistics comprising radio network data for individual of a plurality of UEs in the first cell, UE throughput for individual of the plurality of UEs, and UE packet loss for individual of the plurality of UEs; obtaining, at a second time point occurring later in time than the obtaining of the radio network statistics, radio network data for the first UE, determining a predicted first UE throughput and a predicted first UE packet loss based on the obtained radio network statistics of the first cell and on the obtained radio network data for the first UE, and triggering sending of information of the predicted first UE throughput and of the predicted first UE packet loss to a sender of the real-time media flow to the first UE. obtaining radio network statistics of the first cell, the radio network statistics comprising radio network data for individual of a plurality of UEs in the first cell, UE throughput for individual of the plurality of UEs, and UE packet loss for individual of the plurality of UEs; obtaining, at a second time point occurring later in time than the obtaining of the radio network statistics, radio network data for the first UE, determining a predicted first UE throughput and a predicted first UE packet loss based on the obtained radio network statistics of the first cell and on the obtained radio network data for the first UE, and triggering sending of information of the predicted first UE throughput and of the predicted first UE packet loss to a sender of the real-time media flow to the first UE.
A Class A amplifier circuit comprising a bipolar, common emitter-connected, CE, transistor having a base connected to a DC bias voltage (Vbias1) and an AC signal (10, 12) to be amplified, wherein the CE transistor has a transconductance vs. base-emitter voltage, V BE, characteristic which, when plotted, shows a transconductance that increases with an increasing V BE to a maximum, then drops, then tapers off, wherein there is an inflection point between the maximum transconductance and where the transconductance tapers off; the Class A amplifier circuit also comprising a bipolar cascode transistor having an emitter coupled to a collector of the CE transistor, a collector of the cascode transistor being connected to an output circuit (C1, 18, 20); and a DC bias circuit coupled to the base of the CE transistor, wherein the DC bias circuit is configured to apply a DC bias voltage to the base of the CE transistor and is characterised by having a level such that the CE transistor operates around the inflection point within a range of temperatures, wherein the DC bias circuit comprises: a current mirror circuit for generating a current, wherein the current sets the DC bias voltage, wherein the current mirror circuit includes a transistor that is scaled to the CE transistor, and wherein the current mirror circuit is connected with an adjustable current sink at a node, and wherein the current sink is configured to be slightly complementary to absolute temperature, CTAT, so that the CE transistor characteristic tracks the inflection point over a range of temperatures.
A networking device comprising: - a Bluetooth Low Energy, BLE, wireless interface for establishing a peer-to-peer connection with a BLE device; - a network interface configured to connect with a network, and to provide said BLE device network access to said network, and to communicate with one or more other nearby networking devices (120, 130); - a measuring module for measuring a first performance of said peer-to-peer connection; - a decision module configured to perform the following steps: ∘ instructing said BLE interface to break said peer-to-peer connection with said BLE device; ∘ requesting said other nearby networking devices (120, 130) a second performance of a respective peer-to-peer connection (125, 135) between a respective other nearby networking device and said BLE device; ∘ selecting from said first and second performance a best performing networking device (100, 120, 130); ∘ instructing (212, 214) said best performing networking device to establish a second peer-to-peer connection (105, 125, 135) with said BLE device thereby providing network access to said BLE device; wherein said decision module is further configured to perform said steps when said first performance is below a predetermined threshold. - a Bluetooth Low Energy, BLE, wireless interface for establishing a peer-to-peer connection with a BLE device; - a network interface configured to connect with a network, and to provide said BLE device network access to said network, and to communicate with one or more other nearby networking devices (120, 130); - a measuring module for measuring a first performance of said peer-to-peer connection; - a decision module configured to perform the following steps: ∘ instructing said BLE interface to break said peer-to-peer connection with said BLE device; ∘ requesting said other nearby networking devices (120, 130) a second performance of a respective peer-to-peer connection (125, 135) between a respective other nearby networking device and said BLE device; ∘ selecting from said first and second performance a best performing networking device (100, 120, 130); ∘ instructing (212, 214) said best performing networking device to establish a second peer-to-peer connection (105, 125, 135) with said BLE device thereby providing network access to said BLE device; ∘ instructing said BLE interface to break said peer-to-peer connection with said BLE device; ∘ requesting said other nearby networking devices (120, 130) a second performance of a respective peer-to-peer connection (125, 135) between a respective other nearby networking device and said BLE device; ∘ selecting from said first and second performance a best performing networking device (100, 120, 130); ∘ instructing (212, 214) said best performing networking device to establish a second peer-to-peer connection (105, 125, 135) with said BLE device thereby providing network access to said BLE device;
Closure device for a door, in particular for a door of a caravan or of a mobile home, having a movable locking element which, in the closing position, engages in a locking counterpart and prelocks the door, wherein the locking element and the locking counterpart are formed in such a way that they interact as push-push locking, and having a blocking device which, for the main locking of the door, can block a movement of the locking element, wherein the locking element is movable in the radial direction and wherein the blocking device, in the blocking position, blocks a radial movement of the locking element, characterized in that the locking element is mounted in a movable carriage (3.2), wherein, to block the locking element, the blocking device can engage in the carriage (3.2) and prevent the latter from moving.
A method for quenching a pyrolysis product, the method comprising: supplying a discharge stream from a liquid decomposition furnace to a first quench tower; supplying an upper discharge stream from the first quench tower to a second quench tower; supplying a discharge stream from a first gas decomposition furnace to the second quench tower; and supplying a discharge stream from a second gas decomposition furnace to the second quench tower.
A method of providing an apertured polymeric film web, the method comprising: providing a polymeric film web; providing the polymeric film web with a plurality of substantially three dimensional surface structures (100; 200) on at least one of the web's surfaces, wherein the three dimensional surface structures (100; 200) are formed by any of the following methods: vacuum forming, hydroforming, hydrosonics, ultrasonics, flocking, delamination of viscous melts, printed hair, brushing or any combination thereof; and providing the polymeric film web with a plurality of fluid transport apertures (110; 210), wherein the fluid transport apertures (110; 210) are formed by mechanical embossing, stretch rupturing, needle punching, slitting, ring-rolling, forming a structural elastic-like web, or any combination thereof. providing a polymeric film web; providing the polymeric film web with a plurality of substantially three dimensional surface structures (100; 200) on at least one of the web's surfaces, wherein the three dimensional surface structures (100; 200) are formed by any of the following methods: vacuum forming, hydroforming, hydrosonics, ultrasonics, flocking, delamination of viscous melts, printed hair, brushing or any combination thereof; and providing the polymeric film web with a plurality of fluid transport apertures (110; 210), wherein the fluid transport apertures (110; 210) are formed by mechanical embossing, stretch rupturing, needle punching, slitting, ring-rolling, forming a structural elastic-like web, or any combination thereof. vacuum forming, hydroforming, hydrosonics, ultrasonics, flocking, delamination of viscous melts, printed hair, brushing or any combination thereof; and providing the polymeric film web with a plurality of fluid transport apertures (110; 210), wherein the fluid transport apertures (110; 210) are formed by mechanical embossing, stretch rupturing, needle punching, slitting, ring-rolling, forming a structural elastic-like web, or any combination thereof.
Headrest for a motor vehicle seat, said headrest comprising: - two parallel metal legs for mounting on a seatback of said seat, - a transverse strut connecting the upper portions of said legs, - a housing made of moulded plastic material for the adsorption of energy in case of impact of the head of a passenger on said headrest, said housing being rotatably mounted about a transverse axis, in such a way as to be able to switch from a raised position of use to a retracted lowered position, - an upholstered cushion of said housing, - a device for locking said housing in the raised position, - a first spring means for actuating said housing to the lowered position thereof when said device is deactivated, said headrest being characterised in that said device comprises: - two locking catches each formed in the upper portion of each one of said legs, - a locking crosspiece mounted with transversal sliding in said housing, in such a way as to be able to switch from a locking position to an unlocked position, said crosspiece being provided with two locking projections fitting respectively into each one of said catches when said crosspiece is in the locking position, - a means for actuating said crosspiece to the unlocked position thereof, - a second spring means for actuating said crosspiece to the locking position thereof when said housing is in the raised position and when said actuation means is not activated. - two parallel metal legs for mounting on a seatback of said seat, - a transverse strut connecting the upper portions of said legs, - a housing made of moulded plastic material for the adsorption of energy in case of impact of the head of a passenger on said headrest, said housing being rotatably mounted about a transverse axis, in such a way as to be able to switch from a raised position of use to a retracted lowered position, - an upholstered cushion of said housing, - a device for locking said housing in the raised position, - a first spring means for actuating said housing to the lowered position thereof when said device is deactivated, - two locking catches each formed in the upper portion of each one of said legs, - a locking crosspiece mounted with transversal sliding in said housing, in such a way as to be able to switch from a locking position to an unlocked position, said crosspiece being provided with two locking projections fitting respectively into each one of said catches when said crosspiece is in the locking position, - a means for actuating said crosspiece to the unlocked position thereof, - a second spring means for actuating said crosspiece to the locking position thereof when said housing is in the raised position and when said actuation means is not activated.
A bone conduction device for converting received sound signals into a mechanical force for delivery to a recipient's skull by a piezoelectric actuator, the piezoelectric actuator comprising: a multilayer piezoelectric element comprising two stacked piezoelectric layers (302A, 302B), and a flexible passive layer disposed between and mounted to the piezoelectric layers (302A, 302B), wherein the piezoelectric layers (302A, 302B) have opposing directions of polarization and are configured to deform in response to application thereto of electrical signals generated based on the received sound signals; a first mass component attached to a first end of the multilayer piezoelectric element and a second mass component attached to a second end of the multilayer piezoelectric element so as to move in response to deformation of the piezoelectric element; and a coupling configured to attach the multilayer piezoelectric element to an anchor system implantable in the recipient so as to transfer mechanical forces generated by the multilayer piezoelectric element and the first and second mass components (784A, 784B) to the recipient's skull. a multilayer piezoelectric element comprising two stacked piezoelectric layers (302A, 302B), and a flexible passive layer disposed between and mounted to the piezoelectric layers (302A, 302B), wherein the piezoelectric layers (302A, 302B) have opposing directions of polarization and are configured to deform in response to application thereto of electrical signals generated based on the received sound signals; a first mass component attached to a first end of the multilayer piezoelectric element and a second mass component attached to a second end of the multilayer piezoelectric element so as to move in response to deformation of the piezoelectric element; and a coupling configured to attach the multilayer piezoelectric element to an anchor system implantable in the recipient so as to transfer mechanical forces generated by the multilayer piezoelectric element and the first and second mass components (784A, 784B) to the recipient's skull.
A method of using a filter arrangement, the method comprising: an object traveling along a path past the filter arrangement and emanating light, transmitting/reflecting at least some of the emanated light through the filter arrangement, photosensing the emanating light that has passed through the filter arrangement, and processing the sensing results obtained in the step of photosensing to encode information about the object, wherein the step of transmitting/reflecting at least some of the emanating light through the filter arrangement includes: while the object passes through two or more segments (50, 52) of the object's path, respective portions of the emanating light are transmitted/reflected through respective positions (34, 36) of a filter assembly within the filter arrangement; wherein each of the respective positions (34, 36) have a respective transmission function, characterised in that the transmission functions of at least two of the respective positions have different transmission spectra and are sufficiently different from each other such that time variation occurs in the sensed output light while the object travels through the sequence of segments. an object traveling along a path past the filter arrangement and emanating light, transmitting/reflecting at least some of the emanated light through the filter arrangement, photosensing the emanating light that has passed through the filter arrangement, and processing the sensing results obtained in the step of photosensing to encode information about the object, wherein the step of transmitting/reflecting at least some of the emanating light through the filter arrangement includes: while the object passes through two or more segments (50, 52) of the object's path, respective portions of the emanating light are transmitted/reflected through respective positions (34, 36) of a filter assembly within the filter arrangement; wherein each of the respective positions (34, 36) have a respective transmission function, characterised in that the transmission functions of at least two of the respective positions have different transmission spectra and are sufficiently different from each other such that time variation occurs in the sensed output light while the object travels through the sequence of segments. while the object passes through two or more segments (50, 52) of the object's path, respective portions of the emanating light are transmitted/reflected through respective positions (34, 36) of a filter assembly within the filter arrangement; wherein each of the respective positions (34, 36) have a respective transmission function, characterised in that the transmission functions of at least two of the respective positions have different transmission spectra and are sufficiently different from each other such that time variation occurs in the sensed output light while the object travels through the sequence of segments.
A method for braking a vehicle, wherein the vehicle comprises a circuit adapted for transmitting a brake signal from an operator controlled braking element to brake devices (39,41,43, 45,47,49) arranged at a plurality of the vehicle's ground engaging elements via a brake fluid, characterized by the steps of detecting a fluid pressure in the circuit, using the detected fluid pressure level as an input for determining a brake power for at least one auxiliary brake (61,63) in the vehicle, and controlling the auxiliary brake responsively in such a way that the brake power of the auxiliary brake is apportioned variably in a certain way as a function of the detected pressure in the brake devices circuit.
A doctor blade device for applying a powder material to a substrate for an additive manufacturing system, comprising: - a doctor blade body, - a doctor blade element, and - a measuring unit, wherein the doctor blade element is configured to spread the powder material onto the substrate, wherein the doctor blade body holds the doctor blade element and the doctor blade element extends at least partially along the doctor blade body, wherein the measuring unit is arranged at the doctor blade body, and wherein the measuring unit is configured for an interaction with a laser unit, which is configured to irradiate the powder material spread onto the substrate, characterized in that the doctor blade body and the doctor blade element comprise two or more components. - a doctor blade body, - a doctor blade element, and - a measuring unit,