mhurhangee/ep-ind-claims huggingface dataset:
A method for processing an encoded video sequence in a motion compensation loop of a video codec, said method comprising the steps of: - reconstructing the encoded video sequence and providing a plurality of neighboring pictures; - transforming each of said neighboring pictures into the coordinate system of a reference picture based on a global motion model, and thereby generating a picture stack comprising transformed pictures; - combining the pixel amplitudes of corresponding pixels of said transformed pictures using a weighting function, to form a processed pixel amplitude for at least one image pixel of the reference picture; - generating a processed picture based on said at least one processed pixel amplitude of said image pixel; - storing the processed picture as reference for motion estimation; and - generating an encoded bit stream comprising indices identifying the transformed pictures used for generating the processed picture; wherein the global motion model is an affine, a perspective and/or a parabolic motion model. - reconstructing the encoded video sequence and providing a plurality of neighboring pictures; - transforming each of said neighboring pictures into the coordinate system of a reference picture based on a global motion model, and thereby generating a picture stack comprising transformed pictures; - combining the pixel amplitudes of corresponding pixels of said transformed pictures using a weighting function, to form a processed pixel amplitude for at least one image pixel of the reference picture; - generating a processed picture based on said at least one processed pixel amplitude of said image pixel; - storing the processed picture as reference for motion estimation; and - generating an encoded bit stream comprising indices identifying the transformed pictures used for generating the processed picture;
A method of wireless communication performed by a user equipment functionality, UEF, entity, comprising: receiving an indication of a scaling factor associated with a periodicity of backhaul physical random access channel, PRACH, resources; and configuring the periodicity of the backhaul PRACH resources based on the scaling factor and a periodicity of PRACH resources associated with a PRACH configuration index, the periodicity of the backhaul PRACH resources being extended, based on the scaling factor, relative to the periodicity of PRACH resources. receiving an indication of a scaling factor associated with a periodicity of backhaul physical random access channel, PRACH, resources; and configuring the periodicity of the backhaul PRACH resources based on the scaling factor and a periodicity of PRACH resources associated with a PRACH configuration index, the periodicity of the backhaul PRACH resources being extended, based on the scaling factor, relative to the periodicity of PRACH resources.
Glass derived from a glass batch comprising silica sand(SiO 2) in the concentration range essentially between 40 wt.% and 80 wt.%, limestone (CaCO 3) in the concentration range essentially between 2 wt.% and 10 wt.%, dolomite (CaCO 3 x MgCO 3) in the concentration range essentially between 2 wt.% and 10 wt.%, barium carbonate (BaCO 3) in the concentration range essentially between 0.1 wt.% and 5 wt.%, and titanium oxide (TiO 2) in the concentration range between 1 wt.% to 15 wt. % characterised in that the glass has been treated to produce a craquelle glass with a smooth outer and inner surface.
An organic-inorganic hybrid solar cell comprising: a first electrode; a first light absorbing layer provided on the first electrode; a second light absorbing layer provided on the first light absorbing layer; and a second electrode provided on the second light absorbing layer, wherein the first light absorbing layer and the second light absorbing layer have different phase transition temperatures, and one of the first light absorbing layer and the second light absorbing layer comprises a compound having a perovskite structure represented by the following Chemical Formula 1 and the other comprises a compound having a perovskite structure represented by the following Chemical Formula 2: [Chemical Formula 1] AMX 3 [Chemical Formula 2] B y B' ( 1-y)M'X' z X" (3-z) in Chemical Formula 1 or Chemical Formula 2, B and B' are different from each other, and A, B, and B' are each independently a monovalent cation selected from C n H 2n+1 NH 3 +, NH 4 +, HC(NH 2) 2 +, CS +, NF 4 +, NCl 4 -, PF 4 +, PCl 4 +, CH 3 PH 3 +, CH 3 AsH 3 +, CH 3 SbH 3 +, PH 4 +, AsH 4 +, and SbH 4 +, M and M' are the same as or different from each other, and are each independently a divalent metal ion selected from Cu 2+, Ni 2+, Co 2+, Fe 2+, Mn 2+, Cr 2+, Pd 2+, Cd 2+, Ge 2+, Sn 2+, Pb 2+, and Yb 2+, X, X', and X" are the same as or different from each other, and are each independently a halogen ion, n is an integer from 1 to 9, 0 < y < 1, and 0 < z < 3. a first electrode; a first light absorbing layer provided on the first electrode; a second light absorbing layer provided on the first light absorbing layer; and a second electrode provided on the second light absorbing layer, wherein the first light absorbing layer and the second light absorbing layer have different phase transition temperatures, and one of the first light absorbing layer and the second light absorbing layer comprises a compound having a perovskite structure represented by the following Chemical Formula 1 and the other comprises a compound having a perovskite structure represented by the following Chemical Formula 2: B and B' are different from each other, and A, B, and B' are each independently a monovalent cation selected from C n H 2n+1 NH 3 +, NH 4 +, HC(NH 2) 2 +, CS +, NF 4 +, NCl 4 -, PF 4 +, PCl 4 +, CH 3 PH 3 +, CH 3 AsH 3 +, CH 3 SbH 3 +, PH 4 +, AsH 4 +, and SbH 4 +, M and M' are the same as or different from each other, and are each independently a divalent metal ion selected from Cu 2+, Ni 2+, Co 2+, Fe 2+, Mn 2+, Cr 2+, Pd 2+, Cd 2+, Ge 2+, Sn 2+, Pb 2+, and Yb 2+, X, X', and X" are the same as or different from each other, and are each independently a halogen ion, n is an integer from 1 to 9, 0 < y < 1, and 0 < z < 3.
A method for signaling transmission, comprising: receiving, by a first network device, a connection resume request, wherein the first network device is a target base station; and transmitting, by the first network device, first signaling to a second network device in a case that the connection resume request is transmitted by a terminal device when initiating small data transmission, SDT, wherein the second network device is a source base station, and the first signaling contains first indication information and first list information, wherein the first indication information indicates that initiation of the connection resume request by the terminal device is to perform SDT, the method being characterized by the first list information containing an encryption and/or integrity protection algorithm supported by the first network device, and the first indication information and the first list information being are used by the second network device to determine whether to perform user equipment, UE, context migration. receiving, by a first network device, a connection resume request, wherein the first network device is a target base station; and transmitting, by the first network device, first signaling to a second network device in a case that the connection resume request is transmitted by a terminal device when initiating small data transmission, SDT, wherein the second network device is a source base station, and the first signaling contains first indication information and first list information, wherein the first indication information indicates that initiation of the connection resume request by the terminal device is to perform SDT, the method being characterized by the first list information containing an encryption and/or integrity protection algorithm supported by the first network device, and the first indication information and the first list information being are used by the second network device to determine whether to perform user equipment, UE, context migration.
A tree felling wedge, comprising a front part provided with a tip, adapted to be driven into a tree trunk, and a rear part comprising an impact face adapted to receive impacts from a striking tool to drive the front part into the tree trunk, characterized in that the wedge further comprises a relatively harder polymer core and a relatively softer polymer mantle, and in that the relatively softer polymer mantle at least partly surrounds the relatively harder polymer core. the wedge further comprises a relatively harder polymer core and a relatively softer polymer mantle, and in that the relatively softer polymer mantle at least partly surrounds the relatively harder polymer core.
Precast concrete ceiling part for a car park, - with a base plate made of concrete and - with a recess provided for at least partially receiving an inductive charging station in the base plate, characterised in that - the base plate is provided with a reinforcement (6; 40), - the recess is formed in the upper side of the base plate and - the recess has a protective layer against the penetration of water into the base plate. - with a base plate made of concrete and - with a recess provided for at least partially receiving an inductive charging station in the base plate, characterised in that - the base plate is provided with a reinforcement (6; 40), - the recess is formed in the upper side of the base plate and - the recess has a protective layer against the penetration of water into the base plate.
A method comprising: performing, with a first node, beam measurement for downlink beams received with the first node from at least one second node; scheduling, with the first node, at least one third node for uplink transmission to the first node; determining, with the first node, one or more of the downlink beams that can be received simultaneously with a beam of the at least one third node based, at least partially, on the scheduling of the at least one third node and the performing of the beam measurement; and transmitting, with the first node, results of the performed beam measurement, wherein the results comprise an indication of the one or more determined downlink beams that can be received simultaneously with the beam of the at least one third node. performing, with a first node, beam measurement for downlink beams received with the first node from at least one second node; scheduling, with the first node, at least one third node for uplink transmission to the first node; determining, with the first node, one or more of the downlink beams that can be received simultaneously with a beam of the at least one third node based, at least partially, on the scheduling of the at least one third node and the performing of the beam measurement; and transmitting, with the first node, results of the performed beam measurement, wherein the results comprise an indication of the one or more determined downlink beams that can be received simultaneously with the beam of the at least one third node.
A method for the cutting of block materials, particularly foamed or expanded materials, wherein a knife element having first and second ends (5a,5b) is driven in a translatory manner in longitudinal direction for performing a reciprocating movement, the driving force being exerted on the first and second ends (5a,5b) of the knife element, the driving of the first end of the knife element being performed by conversion of a first rotary movement into a first translatory movement, and the driving of the second end of the knife element being performed by conversion of a second rotary movement into a second translatory movement in a sense opposed to that of the first translatory movement, the rotational frequency of the first rotary movement with respect to full revolutions being equal to the rotational frequency of the second rotary movement, characterized in that, per revolution of the first and second rotary movements, the first rotary movement has a higher angular speed in a first and a second partial range of the revolution than the second rotary movement, and in a third and a fourth partial range of the revolution, the second rotary movement has a higher angular speed than the first rotary movement, and that, at the start and respectively the end of a revolution and at the transition between the second and the third partial ranges of the revolution, the first and second rotary movements have an identical angular speed.
Pouring element (1, 1') for a composite package (P, P'), comprising: - a monolithic main body (3, 3') with a flange (4, 4'), a hollow cylindrical spout (5, 5'), which defines a central axis, and a closure part (6, 6') formed in the spout (5, 5'), which runs substantially orthogonal to the central axis, with a weakening zone (7, 7'), - a hollow cylindrical cutting element (11, 11') movably guided in the spout (5, 5') with at least one cutting tooth (12, 12') for severing the weakening zone (7, 7') to open the spout (5, 5') and composite package, - a reclosable screw cap (2, 2'), which serves to drive the cutting element (11, 11') when the composite package is opened for the first time, characterized in that the main body (3, 3') consists of at least 92% by weight of HDPE and according to ASTM D3985 has an oxygen transmission rate between 12 and 23 ml O 2/ (m 2 *day), measured through a measuring surface which is orthogonal to the central axis and runs through the flange (4, 4') of the main body (3, 3'). - a monolithic main body (3, 3') with a flange (4, 4'), a hollow cylindrical spout (5, 5'), which defines a central axis, and a closure part (6, 6') formed in the spout (5, 5'), which runs substantially orthogonal to the central axis, with a weakening zone (7, 7'), - a hollow cylindrical cutting element (11, 11') movably guided in the spout (5, 5') with at least one cutting tooth (12, 12') for severing the weakening zone (7, 7') to open the spout (5, 5') and composite package, - a reclosable screw cap (2, 2'), which serves to drive the cutting element (11, 11') when the composite package is opened for the first time,
An apparatus for transmitting a first signal and a second signal from a radar component through a rotary joint, the apparatus comprising: a first input or output for the first signal; a second input for the second signal; an upstream converter configured to convert the second signal into a converted second signal so that the converted second signal and the first signal lie in different frequency bands; and a diplexer with a first input for the first signal and a second input for the converted second signal, the diplexer being configured to combine the converted second signal with an unchanged first signal into a data stream and to output the data stream into a data channel for transmission through the rotary joint. a first input or output for the first signal; a second input for the second signal; an upstream converter configured to convert the second signal into a converted second signal so that the converted second signal and the first signal lie in different frequency bands; and a diplexer with a first input for the first signal and a second input for the converted second signal, the diplexer being configured to combine the converted second signal with an unchanged first signal into a data stream and to output the data stream into a data channel for transmission through the rotary joint.
A microprocessor, comprising: a plurality of dynamically reconfigurable functional units; a value that identifies an instruction sequence; an instruction sequence identification unit, wherein as the plurality of dynamically reconfigurable functional units execute instructions according to a first configuration setting, the instruction sequence identification unit accumulates information about the instructions according to a mathematical operation to generate a result; and a reconfiguration unit that reconfigures the plurality of dynamically reconfigurable functional units to execute instructions according to a second configuration setting in response to an indication that the result matches the instruction sequence identifying value. a plurality of dynamically reconfigurable functional units; a value that identifies an instruction sequence; an instruction sequence identification unit, wherein as the plurality of dynamically reconfigurable functional units execute instructions according to a first configuration setting, the instruction sequence identification unit accumulates information about the instructions according to a mathematical operation to generate a result; and a reconfiguration unit that reconfigures the plurality of dynamically reconfigurable functional units to execute instructions according to a second configuration setting in response to an indication that the result matches the instruction sequence identifying value.
A cam device comprising: a cam integrally attached to a camshaft to rotatably move around the camshaft in forward and reverse directions; a cam roller linearly moved by a rotational motion of the cam around the camshaft; a rotary drive device that rotationally drives the camshaft by controlling a forward rotation, a reverse rotation, a rotation stop, and a rotation speed; a linear motion guide device that guides a driven member that is linearly moved along with the cam roller; and an action unit attached to the driven member, a cam surface forming a cam profile of the cam includes a rotary end at a circumferential one end, at which the camshaft is non-rotatable in a reverse direction by the cam roller, a lift region from the rotary end to the circumferential other end, on which the cam roller is abuttable, characterized in that the lift region is formed of a single CV curve from a vicinity of the rotary end to the circumferential other end, and a non-continuous section formed between the rotary end and the circumferential other end, wherein the non-continuous section is formed not to be in contact with the cam roller. a cam integrally attached to a camshaft to rotatably move around the camshaft in forward and reverse directions; a cam roller linearly moved by a rotational motion of the cam around the camshaft; a rotary drive device that rotationally drives the camshaft by controlling a forward rotation, a reverse rotation, a rotation stop, and a rotation speed; a linear motion guide device that guides a driven member that is linearly moved along with the cam roller; and an action unit attached to the driven member, a cam surface forming a cam profile of the cam includes a rotary end at a circumferential one end, at which the camshaft is non-rotatable in a reverse direction by the cam roller, a lift region from the rotary end to the circumferential other end, on which the cam roller is abuttable, characterized in that the lift region is formed of a single CV curve from a vicinity of the rotary end to the circumferential other end, and a non-continuous section formed between the rotary end and the circumferential other end, wherein the non-continuous section is formed not to be in contact with the cam roller.
Measuring device for measuring differential signals with a real time section, wherein the real time section comprises two probes (31, 32), two analogue-to-digital converters (13, 14), a signal adder and/or signal subtractor and a trigger unit, wherein the probes (31, 32) each receive a part signal of a differential signal, wherein the analogue-to-digital converters (13, 14) each convert a part signal into a digital part signal, wherein the signal adder or signal subtractor respectively adds or subtracts the digital part signals to form a digital differential signal, characterised in that the trigger unit carries out triggering of the digital differential signal based on the digital differential signal.
A method for wireless communication executed by a first wireless device, comprising: performing an asynchronous clear channel assessment to obtain access to a shared radio frequency band; receiving, via the shared radio frequency band, a medium reservation message from a second wireless device indicating synchronization information for a synchronous contention window, wherein the synchronization information indicates at least a duration of a channel occupancy time, and one or more of a duration of the synchronous contention window and a duration in which the first wireless device is to maintain synchronization; performing a second clear channel assessment within the synchronous contention window to obtain access to the shared radio frequency band; and communicating, via the shared radio frequency band, data in accordance with the synchronization information based at least in part on the second clear channel assessment. performing an asynchronous clear channel assessment to obtain access to a shared radio frequency band; receiving, via the shared radio frequency band, a medium reservation message from a second wireless device indicating synchronization information for a synchronous contention window, wherein the synchronization information indicates at least a duration of a channel occupancy time, and one or more of a duration of the synchronous contention window and a duration in which the first wireless device is to maintain synchronization; performing a second clear channel assessment within the synchronous contention window to obtain access to the shared radio frequency band; and communicating, via the shared radio frequency band, data in accordance with the synchronization information based at least in part on the second clear channel assessment.
A method for manufacturing a three-dimensional real model of the actual position of at least two teeth of a patient, wherein the real model further comprises at least one holding device which is connected to an associated tooth of the at least two teeth in the real model and is configured to hold with positive fit an engagement element configured separately from the real model in a target position on the associated tooth in the real model, wherein a transfer mask is moldable by the real model, wherein said transfer mask can be used for attaching the engagement element to the associated tooth of the patient, the method comprising the steps of: A) Creating a three-dimensional digital model for the at least two teeth and the holding device and B) Creating the three-dimensional real model based on the three-dimensional digital model, preferably by means of a rapid prototyping method, characterized in that the step A) comprises a step a1), in which at least one auxiliary structure is provided on the digital model which is configured to facilitate a post-processing of the real model and/or of the transfer mask to be molded therefrom. A) Creating a three-dimensional digital model for the at least two teeth and the holding device and B) Creating the three-dimensional real model based on the three-dimensional digital model, preferably by means of a rapid prototyping method,