mhurhangee/ep-ind-claims huggingface dataset:
A random access method executed by a base station for communication between a user equipment, LTE, and the base station, comprising: the base station receiving a first message transmitted from the UE, wherein the first message for random access in an unlicensed frequency band includes a preamble message and a signal message; the base station decoding the first message comprising the preamble message and the signal message transmitted from the UE; the base station transmitting, when successfully decoding the first message, a second message and a fourth message at one time to the UE to notify the UE that random access for the UE is successful; wherein when the preamble message is successfully decoded while decoding of the signal message has failed, the base station storing the signal message, and transmitting the second message configured to request the UE to transmit a third message comprising the signal message; upon reception of the third message transmitted in response to the second message, the base station decoding the signal message from the third message in conjunction with the stored signal message based on a chase combine mechanism; and when both the preamble message and the signal message are successfully decoded, the base station transmitting the fourth message configured to notify the UE that the random access for the UE is successful; wherein the second message comprises at least one of a time adjustment information, a cell radio network temporary identity, and an uplink resource allocation; and the fourth message comprises a contention resolution. the base station receiving a first message transmitted from the UE, wherein the first message for random access in an unlicensed frequency band includes a preamble message and a signal message; the base station decoding the first message comprising the preamble message and the signal message transmitted from the UE; the base station transmitting, when successfully decoding the first message, a second message and a fourth message at one time to the UE to notify the UE that random access for the UE is successful; wherein when the preamble message is successfully decoded while decoding of the signal message has failed, the base station storing the signal message, and transmitting the second message configured to request the UE to transmit a third message comprising the signal message; upon reception of the third message transmitted in response to the second message, the base station decoding the signal message from the third message in conjunction with the stored signal message based on a chase combine mechanism; and when both the preamble message and the signal message are successfully decoded, the base station transmitting the fourth message configured to notify the UE that the random access for the UE is successful; wherein the second message comprises at least one of a time adjustment information, a cell radio network temporary identity, and an uplink resource allocation; and the fourth message comprises a contention resolution.
A wireless terminal for communicating a power headroom report of a Physical Uplink Shared Channel, PUSCH, or of a Physical Uplink Control Channel, PUCCH, including a power headroom to a base station in a RAN, Radio Access Network, the wireless terminal comprising a processor configured to determine whether a transmission power field containing information about the transmission power of an uplink serving cell (Pcmax,c) associated with the power headroom is to be sent together with the power headroom; and to control setting an indicator to a specific value to indicate that the transmission power field is included, when it is determined that the transmission power field is to be sent.
A system for data analytics in a network between one or more local device(s) and a cloud computing platform, the system comprising: a processor configured to process data collected and/or stored on the local device(s) and/or stored on the cloud computing platform by an analytical algorithm which is subdivided into at least two sub-algorithms (SA1, SA2), wherein at least one sub-algorithm is executed on the local device(s) and at least one other sub-algorithm is executed on the cloud computing platform based on an affinity/preference indicator, characterized wherein the affinity/preference indicator is defined regarding the location of execution and the run-time for each sub-algorithm, and based on data structure of the processed data, wherein location of execution is regarding distribution of the sub-algorithms (SA1, SA2) to their place of execution in accordance with the deployment.
A kit comprising or consisting of (a) a sample preparation container for purification or enrichment of peptides or polypeptides from cellular material or viruses, the container comprising a reaction chamber and a chromatography medium; wherein said reaction chamber (i) is for holding said cellular material or viruses and is configured such that the following reactions can be performed therein: lysis; chromatographic purification; reduction; alkylation; and enzymatic reactions; and (ii) has an opening at the top; wherein said chromatography medium is configured to purify or enrich said peptides or polypeptides; wherein said chromatography medium is (i) located at a wall at the bottom of said reaction chamber, and said wall is closed or sealed and configured to be opened for obtaining purified or enriched peptides or polypeptides; and (ii) configured to perform chromatography from top to bottom with gravity as a driving force; wherein the surface of said chromatography medium is configured to act as a filtration surface or comprises a further filtration layer or reactive layer, said surface or layer facing the interior of said reaction chamber; (b) a protease; (c) an alkylating agent; and (d) a reducing agent. (a) a sample preparation container for purification or enrichment of peptides or polypeptides from cellular material or viruses, the container comprising a reaction chamber and a chromatography medium; wherein said reaction chamber (i) is for holding said cellular material or viruses and is configured such that the following reactions can be performed therein: lysis; chromatographic purification; reduction; alkylation; and enzymatic reactions; and (ii) has an opening at the top; wherein said chromatography medium is configured to purify or enrich said peptides or polypeptides; wherein said chromatography medium is (i) located at a wall at the bottom of said reaction chamber, and said wall is closed or sealed and configured to be opened for obtaining purified or enriched peptides or polypeptides; and (ii) configured to perform chromatography from top to bottom with gravity as a driving force; wherein the surface of said chromatography medium is configured to act as a filtration surface or comprises a further filtration layer or reactive layer, said surface or layer facing the interior of said reaction chamber; (i) is for holding said cellular material or viruses and is configured such that the following reactions can be performed therein: lysis; chromatographic purification; reduction; alkylation; and enzymatic reactions; and (ii) has an opening at the top; (i) located at a wall at the bottom of said reaction chamber, and said wall is closed or sealed and configured to be opened for obtaining purified or enriched peptides or polypeptides; and (ii) configured to perform chromatography from top to bottom with gravity as a driving force; (b) a protease; (c) an alkylating agent; and (d) a reducing agent.
A system for providing information to an information system in a vehicle, the system comprising: - a communication interface adapted to communicate with a server residing outside said vehicle; - data storage means configured to temporarily store data received from said server via said communication interface; - data gathering means adapted to obtain, independently of said server, information about a situation or event that is relevant to the operation of the vehicle, the comfort of its passengers, or the services offered to these passengers; - an information system arranged to provide information services to crew and/or passengers or to control systems of said vehicle; and - a processor, operatively connected to said communication interface, said data storage means, and said data gathering means, said processor being configured to provide information to said information system; wherein said processor is further configured to: - detect whether said communication interface is operationally communicating with said server, - if said communication interface is operational, provide data received from said communication interface as said information to said information system; and - if said communication interface is not operational, provide data retrieved from said data storage means and adapted on the basis of information obtained from said data gathering means as said information to said information system; wherein said data gathering means comprises at least one sensor arranged to sense wheel pulses, said processor being configured to determine a current speed and/or a current location on the basis of said wheel pulses. - a communication interface adapted to communicate with a server residing outside said vehicle; - data storage means configured to temporarily store data received from said server via said communication interface; - data gathering means adapted to obtain, independently of said server, information about a situation or event that is relevant to the operation of the vehicle, the comfort of its passengers, or the services offered to these passengers; - an information system arranged to provide information services to crew and/or passengers or to control systems of said vehicle; and - a processor, operatively connected to said communication interface, said data storage means, and said data gathering means, said processor being configured to provide information to said information system; - detect whether said communication interface is operationally communicating with said server, - if said communication interface is operational, provide data received from said communication interface as said information to said information system; and - if said communication interface is not operational, provide data retrieved from said data storage means and adapted on the basis of information obtained from said data gathering means as said information to said information system;
A method of determining a Physical Hybrid automatic repeat request Indicator Channel, PHICH, resource by a user equipment, UE, for receiving ACKnowledgement/Negative ACKnowledgement, ACK/NACK, with respect to each codeword transmitted in uplink in a Single-User Multiple Input Multiple Output, SU-MIMO, system for transmitting one or more codewords in uplink, according to a predetermined mapping between codewords and MIMO layers, the method comprising: determining a PHICH resource to receive the ACK/NACK, wherein the PHICH resource is identified by a pair of a PHICH group index and an orthogonal sequence index within the PHICH group, each of the PHICH groups comprising a predetermined number of orthogonal sequences, wherein the PHICH group index is identified based on a modulo operation having a divisor equal to the number of PHICH groups, and wherein a dividend of the modulo operation includes a function of the index of the codeword transmitted in uplink, the function being defined as f(i)=i, 'i' being the index of the codeword; and receiving the ACK/NACK from a base station through the determined PHICH resource. determining a PHICH resource to receive the ACK/NACK, wherein the PHICH resource is identified by a pair of a PHICH group index and an orthogonal sequence index within the PHICH group, each of the PHICH groups comprising a predetermined number of orthogonal sequences, wherein the PHICH group index is identified based on a modulo operation having a divisor equal to the number of PHICH groups, and wherein a dividend of the modulo operation includes a function of the index of the codeword transmitted in uplink, the function being defined as f(i)=i, 'i' being the index of the codeword; and wherein the PHICH resource is identified by a pair of a PHICH group index and an orthogonal sequence index within the PHICH group, each of the PHICH groups comprising a predetermined number of orthogonal sequences, wherein the PHICH group index is identified based on a modulo operation having a divisor equal to the number of PHICH groups, and wherein a dividend of the modulo operation includes a function of the index of the codeword transmitted in uplink, the function being defined as f(i)=i, 'i' being the index of the codeword; and receiving the ACK/NACK from a base station through the determined PHICH resource.
A toy projectile launcher, comprising: an elastic element (16, 18) having a length that extends between a first end and a second end, wherein said elastic element supports a projectile engagement structure; an anchor block that receives and retains said first end and said second end of said elastic element, wherein said anchor block has a first hole and a second hole extending therethrough, said first hole and second hole being sized to enable said length of said elastic element to pass therethrough, wherein said first hole is sized to cause said first end to wedge therein, and said second hole is to cause said second end to wedge therein; a launcher body having an anchor receptacle, said anchor receptacle being accessible through an open end, wherein said anchor block passes into said anchor receptacle through said open end; a selectively removable locking mechanism that obstructs said open end and locks said anchor block within said anchor receptacle; wherein said elastic element extends through said first hole and said second hole of said anchor receptacle, with said first end wedging within said first hole and said second end wedging in said second hole, and supports said projectile engagement structure. an elastic element (16, 18) having a length that extends between a first end and a second end, wherein said elastic element supports a projectile engagement structure; an anchor block that receives and retains said first end and said second end of said elastic element, wherein said anchor block has a first hole and a second hole extending therethrough, said first hole and second hole being sized to enable said length of said elastic element to pass therethrough, wherein said first hole is sized to cause said first end to wedge therein, and said second hole is to cause said second end to wedge therein; a launcher body having an anchor receptacle, said anchor receptacle being accessible through an open end, wherein said anchor block passes into said anchor receptacle through said open end; a selectively removable locking mechanism that obstructs said open end and locks said anchor block within said anchor receptacle; wherein said elastic element extends through said first hole and said second hole of said anchor receptacle, with said first end wedging within said first hole and said second end wedging in said second hole, and supports said projectile engagement structure.
A decoder for determining an estimate of a vector of information symbols carried by optical signals propagating along a multi-core fiber in an optical fiber transmission channel according to two or more cores, said decoder being implemented in an optical receiver, said optical signals being encoded using a space-time coding scheme and/or being scrambled by at least one scrambling device arranged in said optical fiber transmission channel according to a predefined scrambling function, wherein the decoder comprises a processing unit configured to adaptively: - determine, in response to a temporal condition, one or more channel quality indicators from said optical signals; - determine a decoding algorithm according to a target quality of service metric and on said one or more channel quality indicators; - update said predefined scrambling function and/or said space-time coding scheme depending on said target quality of service metric and on said one or more channel quality indicators, the decoder further comprising a symbol estimation unit configured to determine an estimate of a vector of information symbols by applying said decoding algorithm to said optical signals. - determine, in response to a temporal condition, one or more channel quality indicators from said optical signals; - determine a decoding algorithm according to a target quality of service metric and on said one or more channel quality indicators; - update said predefined scrambling function and/or said space-time coding scheme depending on said target quality of service metric and on said one or more channel quality indicators,
A heat-dissipation device of an LED, wherein the device comprises a plurality of heat conducting wires, and a heat-dissipation housing of the LED chip is contacted with one end of the plurality of heat conducting wires, in order to transmit heat to the heat conducting wires and heat the air around the heat conducting wires, so that the heat can be taken away by flowing air, characterized in that each heat conducting wire is formed by several cylinders made of a heat conducting material, wherein the heat-dissipation housing of the LED chip is contacted with one end of the cylinders made of the heat conducting material through the heat conducting material or in a direct manner, in order to heat the air around the cylinders, and the heat is taken away by the flowing air, wherein the diameters of the cylinders of the heat conducting material are more than 0.01 mm and less than 0.3 mm.
An Ink jet printing machine including, on the same frame, a loading means, a pretreatment station, a printing station and a unloading means, the said pretreatment station including a pretreatment device and the said printing station including a printing device of the ink jet type, characterised in that: - the loading means is capable of placing an object in a first standby position on a first support provided on the machine; - the pretreatment station includes a first object holder that is capable of gripping an object in the first standby position on the first support, bringing the said object into a pretreatment position, moving the said object during a pretreatment process of the said object performed by the said pretreatment device, and, upon conclusion of the pretreatment process, bringing the said object into a second standby position on a second support provided on the machine; - the printing station includes a second object holder capable of gripping an object in the second standby position on the second support, bringing the said object into a printing position, moving the said object during a printing process performed on the said object by the said printing device, and, upon conclusion of the printing process, transferring the said object to the said unloading means. - the loading means is capable of placing an object in a first standby position on a first support provided on the machine; - the pretreatment station includes a first object holder that is capable of gripping an object in the first standby position on the first support, bringing the said object into a pretreatment position, moving the said object during a pretreatment process of the said object performed by the said pretreatment device, and, upon conclusion of the pretreatment process, bringing the said object into a second standby position on a second support provided on the machine; - the printing station includes a second object holder capable of gripping an object in the second standby position on the second support, bringing the said object into a printing position, moving the said object during a printing process performed on the said object by the said printing device, and, upon conclusion of the printing process, transferring the said object to the said unloading means.
A milking device for milking a dairy animal, more particularly a cow, and comprising - a mounting with four milking cups (17a, 17b, 17c, 17d) detachably fitted thereto, - a robot arm for displacing the mounting from a rest position in the direction of an udder of the dairy animal, and - a control system for controlling the robot arm, wherein the four milking cups (17a, 17b, 17c, 17d) are each connected with a respective milk line connection (41a, 41b, 41c, 41d) to a respective milk line (40a, 40b, 40c, 40d) for the removal of milk milked with the milking cup (17a, 17b, 17c, 17d), and are each connected with a respective pulsation line connection to a respective pulsation line, characterized in that, once the four milking cups (17a, 17b, 17c, 17d) are fitted to the mounting, a first pair of the milk line connections (41a, 41b, 41c, 41d) and/or of the pulsation line connections extend substantially parallel to each other in a first direction, and another pair of the milk line connections and/or of the pulsation line connections (41a, 41b, 41c, 41d) extend substantially parallel to each other in a second direction, which first and second directions are substantially parallel to a vertical plane, and wherein a vertical projection of the first direction onto a horizontal plane and a vertical projection of the second direction onto a horizontal plane, are oppositely directed. - a mounting with four milking cups (17a, 17b, 17c, 17d) detachably fitted thereto, - a robot arm for displacing the mounting from a rest position in the direction of an udder of the dairy animal, and - a control system for controlling the robot arm,
A packed clear beverage, containing a fruit flavoring and one or more of the following aroma components: 5 to 5000 ppb of vanillin; 3.0 to 15.0 ppb of ethyl octanoate; or 50 to 500 ppb of 2-undecanone; with an absorbance of 0.06 or less at a wavelength of 660 nm, wherein the fruit flavoring is a citrus flavoring. 5 to 5000 ppb of vanillin; 3.0 to 15.0 ppb of ethyl octanoate; or 50 to 500 ppb of 2-undecanone;
Piston-type fuel pump for an internal combustion engine, having a pump housing, having a piston and having a non-return outlet valve with a valve element and with a guide element for guiding the movement of the valve element, wherein the guide element is at least indirectly pressed radially into an opening of the pump housing, characterized in that the valve element is of pot-shaped form, having a pot base, which is arranged upstream and which comes to bear against a valve seat of the non-return outlet valve when the non-return outlet valve is closed, and having a guide wall, which is arranged downstream.