mhurhangee/ep-ind-claims huggingface dataset:
An apparatus, comprising at least one processor; and at least one memory including computer program code that, when executed by the at least one processor, cause the apparatus at least to: decode a physical layer code block or a physical layer code block group; decode a medium access control, MAC, sub-packet corresponding to the decoded physical layer code block or the physical code block group without waiting for any subsequent physical layer code blocks to be decoded, wherein the MAC sub-packet is a MAC sub-protocol data unit, MACSubPDU, packet; and pass the decoded MAC sub-packet up a protocol stack; wherein a size of the physical layer code block or the physical layer code block group is aligned with a size of the MAC sub-packet, at an upper layer of the protocol stack; alignment of the size of the physical layer code block or the physical layer code block group with the size of the MAC sub-packet comprises a one-to-one relationship between the physical layer code block or the physical layer code block group and the MAC sub-packet. at least one processor; and at least one memory including computer program code that, when executed by the at least one processor, cause the apparatus at least to: decode a physical layer code block or a physical layer code block group; decode a medium access control, MAC, sub-packet corresponding to the decoded physical layer code block or the physical code block group without waiting for any subsequent physical layer code blocks to be decoded, wherein the MAC sub-packet is a MAC sub-protocol data unit, MACSubPDU, packet; and pass the decoded MAC sub-packet up a protocol stack; wherein a size of the physical layer code block or the physical layer code block group is aligned with a size of the MAC sub-packet, at an upper layer of the protocol stack; alignment of the size of the physical layer code block or the physical layer code block group with the size of the MAC sub-packet comprises a one-to-one relationship between the physical layer code block or the physical layer code block group and the MAC sub-packet. decode a physical layer code block or a physical layer code block group; decode a medium access control, MAC, sub-packet corresponding to the decoded physical layer code block or the physical code block group without waiting for any subsequent physical layer code blocks to be decoded, wherein the MAC sub-packet is a MAC sub-protocol data unit, MACSubPDU, packet; and pass the decoded MAC sub-packet up a protocol stack; wherein a size of the physical layer code block or the physical layer code block group is aligned with a size of the MAC sub-packet, at an upper layer of the protocol stack; alignment of the size of the physical layer code block or the physical layer code block group with the size of the MAC sub-packet comprises a one-to-one relationship between the physical layer code block or the physical layer code block group and the MAC sub-packet.
Use of a composition comprising: a polyaspartic acid ester; and a fluoropolymer as a coating to be applied to an offshore structure or a port facility. a polyaspartic acid ester; and a fluoropolymer as a coating to be applied to an offshore structure or a port facility.
A method, comprising: weighting a signal for transmission based on a precoder selected from a dual codebook according to a feedback, codewords of the dual codebook constructed using a product of a matrix of a first codebook and a matrix of a second codebook according to an LTE Rel.-10 8 transmit codebook; characterized in that the first codebook is constructed according to D k V V, where k is an index, rotation matrix D as a function of θ is D = ∠ 0 ° ∠ θ ° ∠ 0 ° ∠ θ ° where θ is a design parameter; and a construction matrix V defined as V = v 1 v 2 v 3 v 4 = ∠ 0 ° ∠ 0 ° ∠ 0 ° ∠ 0 ° ∠ 0 ° ∠ β − α ∠ β + α ∠ 2 β where α and β are design parameters; and sending the weighted signal. weighting a signal for transmission based on a precoder selected from a dual codebook according to a feedback, codewords of the dual codebook constructed using a product of a matrix of a first codebook and a matrix of a second codebook according to an LTE Rel.-10 8 transmit codebook; characterized in that the first codebook is constructed according to D k V V, where k is an index, rotation matrix D as a function of θ is D = ∠ 0 ° ∠ θ ° ∠ 0 ° ∠ θ ° where θ is a design parameter; and a construction matrix V defined as V = v 1 v 2 v 3 v 4 = ∠ 0 ° ∠ 0 ° ∠ 0 ° ∠ 0 ° ∠ 0 ° ∠ β − α ∠ β + α ∠ 2 β where α and β are design parameters; and sending the weighted signal.
An ultrasonic treatment device having a housing in which are arranged an energy supply, an oscillator and a driver connected downstream of the oscillator and followed by a power stage that is connected to an ultrasonic transducer element of a sound head, characterized in that the power stage is designed as a flter via which the square-wave voltage of the driver can be converted into a sinusoidal operating voltage and the impedance of the driver can be adapted to the impedance of the ultrasonic transducer element, In that the oscillator is designed as a programmable oscillator that is corttrolled by a microcontroller, in that, in conjunction with a current measurement device, which measures the current flow supplied to the driver, an optimum resonance frequency can be determined at maximum current flow in order to control the ultrasonic transducer element, in that the values determined can be stored in a memory and can be processed by the microcontroller, in that in order to regulate the power by means of pulse interval modulation a gate, which can be controlled by the microcontroller, is arranged between the programmable oscillator and the driver, whereby a current setpoint (I setpoint), which is reduced relative to the maximum current value, can be kept constant in order to regulate the power.
A pad for applying a coating on a surface, the pad comprising a fabric of relatively higher absorbency material wherein the fabric of the relatively higher absorbency material comprises polyester, microfiber, acrylic, polyamide and/or polypropylene, the fabric having an average thickness T, the pad further comprising filaments of a relatively lower absorbency material wherein the filaments comprises polyester, polyamide and/or polypropylene, the filaments having a length L, wherein the length L of the filaments is equal to or longer than the thickness T, characterised in that the surface area of the pad comprises about 62-80 % filaments, where percentages are calculated based on the number of filaments in relation of the number of threads of the fabric in a specified surface area, and wherein the filaments are essentially evenly distributed in the fabric of the pad.
An arrangement of individual seats to be installed in an aircraft cabin and comprising a first assembly of two seats (13.1, 13.2) and a second assembly of two seats (13.3, 13.4), each seat (13.1, 13.2, 13.3, 13.4) having an axis and being convertible between a sitting position and a lying position, said arrangement having a longitudinal axis, characterized in that: - a first seat (13.1) of the first assembly is facing a first seat (13.3) of the second assembly, - a second seat (13.2) of the first assembly is facing a second seat (13.4) of the second assembly, - the first seat (13.1) and the second seat (13.2) of the first assembly being oriented inward in the direction of the longitudinal axis of the arrangement, - the first seat (13.3) and the second seat (13.4) of the second assembly being oriented outwardly opposite the longitudinal axis of the arrangement, and in that the arrangement further comprises: - a first central console (27.1) and a second central console (27.2) positioned between the first assembly of seats (13.1, 13.2) and the second assembly of seats (13.3, 13.4), - the first central console (27.1) comprising a first foot zone (30.1) and a second foot zone (30.2), which are open along two directions opposite to each other and respectively associated with the first seat (13.1) of the first assembly and the first seat (13.3) of the second assembly, - the second central console (27.2) comprising a first foot zone (30.3) and a second foot zone (30.4), which are open along two directions opposite to each other and respectively associated with the second seat (13.2) of the first assembly and the second seat (13.4) of the second assembly. - a first seat (13.1) of the first assembly is facing a first seat (13.3) of the second assembly, - a second seat (13.2) of the first assembly is facing a second seat (13.4) of the second assembly, - the first seat (13.1) and the second seat (13.2) of the first assembly being oriented inward in the direction of the longitudinal axis of the arrangement, - the first seat (13.3) and the second seat (13.4) of the second assembly being oriented outwardly opposite the longitudinal axis of the arrangement, - a first central console (27.1) and a second central console (27.2) positioned between the first assembly of seats (13.1, 13.2) and the second assembly of seats (13.3, 13.4), - the first central console (27.1) comprising a first foot zone (30.1) and a second foot zone (30.2), which are open along two directions opposite to each other and respectively associated with the first seat (13.1) of the first assembly and the first seat (13.3) of the second assembly, - the second central console (27.2) comprising a first foot zone (30.3) and a second foot zone (30.4), which are open along two directions opposite to each other and respectively associated with the second seat (13.2) of the first assembly and the second seat (13.4) of the second assembly.
An aircraft including a wing and a nacelle for a bypass turbojet engine connected by an attachment pylon, the nacelle including an upstream section by which an air flow is intended to penetrate, a middle section intended to surround the fan of the turbojet engine and a downstream section comprising an inner structure and an outer structure delimiting a flow path adapted to circulate the air flow, the outer structure comprising at least one cowl mounted on the inner structure and movable along a longitudinal axis (Δ) of the nacelle so as to allow the discharge of at least one portion of the air flow circulating in the flow path upon a thrust reverser phase of the nacelle, the nacelle also having a top intended to receive an attachment pylon of a wing of the aircraft, said nacelle comprising: - at least one first panel (33; 133) mounted on the inner structure on one side of the nacelle, relative to the top which is disposed near a member of the wing so as to undergo a physical interference with the member of the wing, in order to limit the physical interference of said cowl with said wing member upon a thrust reversal, and - at least one second panel (35; 135; 235) mounted on the other side of the nacelle, relative to the top, this panel being configured so as to allow the discharge of a portion of the air flow in order to maximize the air discharged from this other side of the nacelle upon a thrust reversal. - at least one first panel (33; 133) mounted on the inner structure on one side of the nacelle, relative to the top which is disposed near a member of the wing so as to undergo a physical interference with the member of the wing, in order to limit the physical interference of said cowl with said wing member upon a thrust reversal, and - at least one second panel (35; 135; 235) mounted on the other side of the nacelle, relative to the top, this panel being configured so as to allow the discharge of a portion of the air flow in order to maximize the air discharged from this other side of the nacelle upon a thrust reversal.
An apparatus comprising: an injection device configured to output a metal alloy under pressure; and a molding device coupled to the injection device and having a plurality of molding portions (124, 126) that form a cavity that defines an article to be molded using the metal alloy and having a feature of a different thickness than a wall of the article and a protrusion opposite the feature, the size and shape of the protrusion being based at least in part on the thermal expansion of the metal alloy to counteract shrinkage of the article, when molding a metal alloy that is comprised primarily of magnesium; and one or more overflows (702, 704) that are positioned to bias flow of the metal alloy toward a part of the cavity that has a higher density of features than another part of the cavity. an injection device configured to output a metal alloy under pressure; and a molding device coupled to the injection device and having a plurality of molding portions (124, 126) that form a cavity that defines an article to be molded using the metal alloy and having a feature of a different thickness than a wall of the article and a protrusion opposite the feature, the size and shape of the protrusion being based at least in part on the thermal expansion of the metal alloy to counteract shrinkage of the article, when molding a metal alloy that is comprised primarily of magnesium; and one or more overflows (702, 704) that are positioned to bias flow of the metal alloy toward a part of the cavity that has a higher density of features than another part of the cavity.
Screw compressor, comprising a compressor housing with two rotor screws (1, 2) mounted therein in an axially parallel manner, which mesh with one another in a compression space, can be driven by means of a drive and are synchronized with one another in their rotational movement, wherein the rotor screws (1, 2) each comprise a single-part or multi-part main body with two end faces (5a, 5b, 5c, 5d) and a profiled surface (12a, 12b) extending therebetween, as well as shaft ends projecting beyond the end faces (5a, 5b, 5c, 5d), wherein at least the profiled surface (12a, 12b) is formed in a multi-layer manner, comprising a first, inner layer as well as a second, outer layer, characterized in that the first, inner layer and the second, outer layer both comprise or are made from a thermoplastic material, wherein particles or pores promoting a running-in process are embedded in the second, outer layer, and the thermoplastic material defines a matrix for receiving the particles or for forming the pores.
A light directing arrangement for directing output light from a lighting unit, comprising an arrangement of panels, wherein at least one panel comprises: a first face having a plurality of first openings; a second face, spaced from the first face, and having a plurality of second openings; and a guide structure (16, 24) between the first and second faces for blocking direct light paths between the first and second openings (14, 22) and allowing an air flow between the first and second openings, wherein the panels form a funnel-type structure for arranging around or over a light emitting area of the lighting unit for limiting beam spreading from the light emitting area; characterised in that the openings of the first face are each formed by stamping or punching, wherein resulting first stamped portions extend into the space between the first and second faces (12, 20) and form a first part of the guide structure, and wherein the openings of the second face are each formed by stamping or punching, and wherein resulting second stamped portions extend into the space between the first and second faces (12, 20) and form a second part of the guide structure. a first face having a plurality of first openings; a second face, spaced from the first face, and having a plurality of second openings; and a guide structure (16, 24) between the first and second faces for blocking direct light paths between the first and second openings (14, 22) and allowing an air flow between the first and second openings, wherein the panels form a funnel-type structure for arranging around or over a light emitting area of the lighting unit for limiting beam spreading from the light emitting area; characterised in that the openings of the first face are each formed by stamping or punching, wherein resulting first stamped portions extend into the space between the first and second faces (12, 20) and form a first part of the guide structure, and wherein the openings of the second face are each formed by stamping or punching, and wherein resulting second stamped portions extend into the space between the first and second faces (12, 20) and form a second part of the guide structure.
A cosmetic composition comprising water and at least the following components: A) at least one estolide ester compound having the Formula as component A: wherein n is from 1 to 10, preferably from 2 to 8, in particular from 3 to 7, and R is selected from branched or linear C 3-20 -alkyl, preferably C 6-18 -alkyl, more preferably C 10-16 -alkyl, even more preferably C 12-14 -alkyl, B) optionally at least one surfactant component B, C) optionally at least one thickener component C, D) optionally at least one hair conditioning component D, and E) optionally at least one further component E, different to components A to D, with the proviso that the cosmetic composition contains at least one component B or at least one component D. A) at least one estolide ester compound having the Formula as component A: wherein n is from 1 to 10, preferably from 2 to 8, in particular from 3 to 7, and R is selected from branched or linear C 3-20 -alkyl, preferably C 6-18 -alkyl, more preferably C 10-16 -alkyl, even more preferably C 12-14 -alkyl, n is from 1 to 10, preferably from 2 to 8, in particular from 3 to 7, and R is selected from branched or linear C 3-20 -alkyl, preferably C 6-18 -alkyl, more preferably C 10-16 -alkyl, even more preferably C 12-14 -alkyl, B) optionally at least one surfactant component B, C) optionally at least one thickener component C, D) optionally at least one hair conditioning component D, and E) optionally at least one further component E, different to components A to D,
A method for preparing a roaming operation of a user equipment between a home network and at least one visited network, the method being performed in a roaming control entity and comprising the steps of: - receiving (S1-1) at least one message related to the roaming operation; - determining (S1-2) if a roaming attempt from the home network to the at least one visited network is performed; and - if the determining step is affirmative, requesting (S1-3), from the home network, information relating to the user equipment so as to evaluate if the user equipment has access to the home network, characterized in that the requesting step comprises transmitting (Sl-3a) a Short Message Service, SMS, message or Multimedia Message Service, MMS, message to the home network, or wherein the requesting step is involved in performing (S1-3b) at least one positioning procedure with the home network, the performing further comprising: initiating a query (S1-3b-1), from the roaming control entity to the home network, of the user equipment position; and initiating paging (S1-3b-2) of the user equipment. - receiving (S1-1) at least one message related to the roaming operation; - determining (S1-2) if a roaming attempt from the home network to the at least one visited network is performed; and - if the determining step is affirmative, requesting (S1-3), from the home network, information relating to the user equipment so as to evaluate if the user equipment has access to the home network, initiating a query (S1-3b-1), from the roaming control entity to the home network, of the user equipment position; and initiating paging (S1-3b-2) of the user equipment.
An encoding program comprising instructions which, when executed by a computer, cause the computer to execute: first generating static-encoded data from input text data, utilizing a static dictionary that associates character strings and static codes, respectively the static-encoded data including first data and second data, wherein the first data are a plurality of static codes corresponding to a plurality of character strings that are registered in the static dictionary and the second data are a plurality of character strings that are not registered in the static dictionary; identifying a character string or static code that occurs more than once in the static-encoded data; second generating dynamic-encoded data from the static-encoded data by encoding a character string or static code that occurs more than once in the static-encoded data into a dynamic code, wherein the dynamic code is a generated unique code different from the static codes; first creating a dynamic dictionary associating character strings or static codes with corresponding dynamic codes, respectively; second creating a Huffman tree based on an occurrence frequency of the dynamic codes and the static codes in the input text data; and encoding the dynamic codes and the static codes included in the dynamic-encoded data, based on the Huffman tree. first generating static-encoded data from input text data, utilizing a static dictionary that associates character strings and static codes, respectively the static-encoded data including first data and second data, wherein the first data are a plurality of static codes corresponding to a plurality of character strings that are registered in the static dictionary and the second data are a plurality of character strings that are not registered in the static dictionary; identifying a character string or static code that occurs more than once in the static-encoded data; second generating dynamic-encoded data from the static-encoded data by encoding a character string or static code that occurs more than once in the static-encoded data into a dynamic code, wherein the dynamic code is a generated unique code different from the static codes; first creating a dynamic dictionary associating character strings or static codes with corresponding dynamic codes, respectively; second creating a Huffman tree based on an occurrence frequency of the dynamic codes and the static codes in the input text data; and encoding the dynamic codes and the static codes included in the dynamic-encoded data, based on the Huffman tree.
A method for controlling a laundry drying machine with heat pump system comprising a process air circuit including a rotating drum, a blower and a heater, a refrigerant circuit including a compressor, a condenser, an expansion device, an evaporator, such condenser and evaporator being in heat exchange relationship with the process air circuit, an auxiliary condenser cooled by an air flow driven by a fan, and at least two temperature sensors (T1, T2) placed in the process air circuit and/or in the refrigerant circuit, characterized in that the method comprises inputting a desired behavior of the laundry drying machine selected in the group consisting of optimized use of energy, overall drying time and fabric care, and controlling the components (12, 16, 22, 26) of the machine according to signals from said two temperature sensors (T1, T2) and according to said desired behavior so as to control the energy delivered to the load inside the drum and the energy removed from the refrigerant in order to optimize different system performance objectives.