mhurhangee/patent-ind-claim-en huggingface dataset:
A user equipment, UE (3-2), for communicating with a base station , the UE (3-2) comprising: means for establishing a Radio Resource Control, RRC, connection with the base station to enter an RRC connected mode; and means for receiving a dedicated signalling message including a modified part of system information via the RRC connection, in a case where the UE (3-2) is in the RRC connected mode. means for establishing a Radio Resource Control, RRC, connection with the base station to enter an RRC connected mode; and means for receiving a dedicated signalling message including a modified part of system information via the RRC connection, in a case where the UE (3-2) is in the RRC connected mode.
A modular display system , comprising: a center modular display (102, 102-1, 102-2), wherein the center modular display is bezel free on a left side and a right side ; and a first curved modular display (104-1) and a second curved modular display (104-2), wherein the first curved modular display and the second curved modular display each comprise a single bezel free side and each comprise a display area that is less than, or equal to, a display area of the center modular display, wherein the single bezel free side of the first curved modular display is the right side, and wherein the first curved modular display is in communication with the left side of the center modular display, and wherein the single bezel free side of the second curved modular display is the left side, and wherein the second curved modular display is in communication with the right side of the center modular display, and wherein the center modular display and the first curved modular display and the second curved modular display are removably coupled to one another and appear as a single display to a computing device, wherein the second curved modular display is identical to the first curved modular display and is rotated 180 degrees around an axis perpendicular to the plane of the center modular display. a center modular display (102, 102-1, 102-2), wherein the center modular display is bezel free on a left side and a right side ; and a first curved modular display (104-1) and a second curved modular display (104-2), wherein the first curved modular display and the second curved modular display each comprise a single bezel free side and each comprise a display area that is less than, or equal to, a display area of the center modular display, wherein the single bezel free side of the first curved modular display is the right side, and wherein the first curved modular display is in communication with the left side of the center modular display, and wherein the single bezel free side of the second curved modular display is the left side, and wherein the second curved modular display is in communication with the right side of the center modular display, and wherein the center modular display and the first curved modular display and the second curved modular display are removably coupled to one another and appear as a single display to a computing device,
Device for securing an electronic member to a wall of a tyre casing, comprising: - a base able to be secured to the wall of the tyre casing; - a retaining wall , connected to the base and with the said base defining a volume delimited by the interior surfaces of the said base and of the said retaining wall which is able to accommodate the electronic member; and - a clamping system for clamping the retaining wall , able to prevent any extraction of the electronic member; - the said retaining wall on its external surface has at least one retaining device for the said clamping system for clamping the retaining wall ; - the said retaining wall , which is able to deform elastically, comprises an opening that allows the said electronic member to be extracted and inserted; characterized in that the said clamping system for clamping the retaining wall is a single-use system and in that the said clamping system , contained in the retaining device , is able to be broken without destroying the retaining wall . - a base able to be secured to the wall of the tyre casing; - a retaining wall , connected to the base and with the said base defining a volume delimited by the interior surfaces of the said base and of the said retaining wall which is able to accommodate the electronic member; and - a clamping system for clamping the retaining wall , able to prevent any extraction of the electronic member; - the said retaining wall on its external surface has at least one retaining device for the said clamping system for clamping the retaining wall ; - the said retaining wall , which is able to deform elastically, comprises an opening that allows the said electronic member to be extracted and inserted;
Rail vehicle having a solar cell , wherein at least one solar cell is provided on the outer skin of the rail vehicle , characterised in that the at least one solar cell is movably supported and is able to be moved between an operating position and an inactive position, wherein in the inactive position the light-receiving surface of the at least one solar cell is covered.
Method for allocating transmission resources, implemented by a cellular access network comprising a base station, to at least one terminal of a set of N pairs of terminals indexed n, N ≥ 2, which are candidates for a direct communication, called D2D terminals, the channel between two D2D terminals in direct communication being called a D2D channel, the base station knowing a statistic on the state of the D2D channels, characterized in that it comprises, for a transmission interval: - the base station determining a subset from among various subsets of D2D terminals of the set that statistically minimizes a utility function v n (t), - a request from the base station to the D2D terminals of the subset, asking them to simultaneously feed back a minimum power and a maximum data rate that minimize their utility metric, - each D2D terminal of the subset determining a minimum power and a maximum data rate that minimize its utility metric, - the D2D terminals of the subset feeding back their determined minimum power and their determined maximum data rate to the base station, - the base station determining a D2D terminal, from among the D2D terminals of the subset, whose utility function applied to its fed-back power and its fed-back data rate is minimum, in order to allocate thereto spectral resources to transmit during the transmission interval. - the base station determining a subset from among various subsets of D2D terminals of the set that statistically minimizes a utility function v n (t), - a request from the base station to the D2D terminals of the subset, asking them to simultaneously feed back a minimum power and a maximum data rate that minimize their utility metric, - each D2D terminal of the subset determining a minimum power and a maximum data rate that minimize its utility metric, - the D2D terminals of the subset feeding back their determined minimum power and their determined maximum data rate to the base station, - the base station determining a D2D terminal, from among the D2D terminals of the subset, whose utility function applied to its fed-back power and its fed-back data rate is minimum, in order to allocate thereto spectral resources to transmit during the transmission interval.
A base station antenna, comprising power dividers , network calibration modules , and connectors , wherein the base station antenna further comprises at least two phase shifters (121; 122), the phase shifters (121; 122) comprise a first phase shifter and a second phase shifter , wherein the first phase shifter is integrated with a first combiner and a second combiner , wherein integration refers to an integrated setting, that is, interconnection without using cables, where two circuits are directly connected by using a circuit board or a metallic circuit, the connectors are connected to the network calibration modules , and the network calibration modules are connected to the phase shifters (121; 122), wherein the combined port of each combiner is connected to a respective power divider , and at least one output port of the second phase shifter is connected to a respective combiner .
A method for programming lighting bus subscribers, wherein the lighting subscribers are connected via a two-wire bus, comprising the steps of: a. determining available lighting bus subscribers, e.g., sensors and/or actuators such as operating devices for lighting means, by a central unit connected to the lighting bus subscribers via the two-wire bus, b. selecting at least one lighting bus subscriber by means of the central unit from the available lighting bus subscribers, c. setting the selected lighting bus subscribers into an update mode by means of the central unit via the two-wire bus and allocating an update identification by means of the central unit via the two-wire bus to the selected lighting bus subscribers, wherein the central unit transmits the update identification to the selected lighting bus subscribers via the two-wire bus, and d. transmitting update software, in particular firmware, provided with the update identification via the two-wire bus to the selected lighting bus subscribers, wherein each selected lighting bus subscriber in update mode recognizes on the basis of the previously transmitted update identification whether the update software transmitted via the two-wire bus and provided with the update identification is intended for it. a. determining available lighting bus subscribers, e.g., sensors and/or actuators such as operating devices for lighting means, by a central unit connected to the lighting bus subscribers via the two-wire bus, b. selecting at least one lighting bus subscriber by means of the central unit from the available lighting bus subscribers, c. setting the selected lighting bus subscribers into an update mode by means of the central unit via the two-wire bus and allocating an update identification by means of the central unit via the two-wire bus to the selected lighting bus subscribers, wherein the central unit transmits the update identification to the selected lighting bus subscribers via the two-wire bus, and d. transmitting update software, in particular firmware, provided with the update identification via the two-wire bus to the selected lighting bus subscribers, wherein each selected lighting bus subscriber in update mode recognizes on the basis of the previously transmitted update identification whether the update software transmitted via the two-wire bus and provided with the update identification is intended for it.
A multi-component system for preparing a foamed product, comprising: a) a first component comprised of at least one (meth)acrylate compound having two or more (meth)acrylate functional groups per molecule; and b) a second component comprised of at least one thiol compound having two or more thiol functional groups per molecule; wherein at least one free radical initiator is present in at least one of the first component or the second component, at least one surfactant is present in at least one of the first component or the second component, and at least one blowing agent is present in at least one of the first component or the second component; wherein in the event the multi-component system has a molar ratio of thiol functional groups to (meth)acrylate functional groups of 0.5 : 1 or greater and the at least one free radical initiator includes at least one organic peroxide, the multi-component system additionally comprises at least one promoter for the at least one organic peroxide, wherein the at least one free radical initiator and the at least one promoter for the at least one free radical initiator are present in different components. a) a first component comprised of at least one (meth)acrylate compound having two or more (meth)acrylate functional groups per molecule; and b) a second component comprised of at least one thiol compound having two or more thiol functional groups per molecule; wherein at least one free radical initiator is present in at least one of the first component or the second component, at least one surfactant is present in at least one of the first component or the second component, and at least one blowing agent is present in at least one of the first component or the second component; wherein in the event the multi-component system has a molar ratio of thiol functional groups to (meth)acrylate functional groups of 0.5 : 1 or greater and the at least one free radical initiator includes at least one organic peroxide, the multi-component system additionally comprises at least one promoter for the at least one organic peroxide, wherein the at least one free radical initiator and the at least one promoter for the at least one free radical initiator are present in different components.
A method for providing a frame structure for machine-type communication in a wireless communication system , the communication system comprising a base station and a plurality of machine-type communication devices, MTCDs , the method comprising: dividing, by the base station, a frame of time-frequency space into at least one first sub-frame and at least one second sub-frame , the at least one first sub-frame associated with a first MTCD of the plurality of MTCDs, the first MTCD within a first coverage level of the base station, the at least one first sub-frame having a first sub-frame length and a first signal pulse bandwidth ; the at least one second sub-frame associated with a second MTCD of the plurality of MTCDs, the second MTCD within a second coverage level of the base station different from the first coverage level, the at least one second sub-frame having a second sub-frame length different from the first sub-frame length and a second signal pulse bandwidth different from the first signal pulse bandwidth; and transmitting , by the base station, information about the at least one first sub-frame and the at least one second sub-frame to the first MTCD; wherein the second sub-frame length is an integer number times the first sub-frame length. dividing, by the base station, a frame of time-frequency space into at least one first sub-frame and at least one second sub-frame , the at least one first sub-frame associated with a first MTCD of the plurality of MTCDs, the first MTCD within a first coverage level of the base station, the at least one first sub-frame having a first sub-frame length and a first signal pulse bandwidth ; the at least one second sub-frame associated with a second MTCD of the plurality of MTCDs, the second MTCD within a second coverage level of the base station different from the first coverage level, the at least one second sub-frame having a second sub-frame length different from the first sub-frame length and a second signal pulse bandwidth different from the first signal pulse bandwidth; and transmitting , by the base station, information about the at least one first sub-frame and the at least one second sub-frame to the first MTCD; wherein the second sub-frame length is an integer number times the first sub-frame length.
A composition for use in treatment of a patient by allogeneic hematopoietic stem cell transplantation (HSCT), wherein the composition comprises T cells enriched in γδ T cells and depleted in αβ T cells wherein the composition comprises greater than 60% γδ T cells, less than 5% αβ T cells and less than 25% natural killer (NK) cells; wherein the composition is used as a cell graft infusion, wherein the patient has been infused with allogeneic hematopoietic stem cells (HSC) comprising peripheral blood stem cells (PBSC) on day 0; wherein the allogeneic HSCs are minimally manipulated haploidentical HSCs; wherein the patient is infused with the composition comprising T cells enriched in γδ T cells and depleted in αβ T cells on day +7 to day +25 relative to day 0; wherein the patient is administered an agent which provides in vivo T cell depletion in the patient prior to infusion with the composition; and wherein the patient has been administered a preparative chemotherapy regimen prior to day 0. wherein the composition comprises T cells enriched in γδ T cells and depleted in αβ T cells wherein the composition comprises greater than 60% γδ T cells, less than 5% αβ T cells and less than 25% natural killer (NK) cells; wherein the composition is used as a cell graft infusion, wherein the patient has been infused with allogeneic hematopoietic stem cells (HSC) comprising peripheral blood stem cells (PBSC) on day 0; wherein the allogeneic HSCs are minimally manipulated haploidentical HSCs; wherein the patient is infused with the composition comprising T cells enriched in γδ T cells and depleted in αβ T cells on day +7 to day +25 relative to day 0; wherein the patient is administered an agent which provides in vivo T cell depletion in the patient prior to infusion with the composition; and wherein the patient has been administered a preparative chemotherapy regimen prior to day 0.
Industrial truck having an electrical connection cable set , wherein the industrial truck has a vehicle body and a lifting mast on which a load-bearing means is arranged such that it can be lifted and can be lowered, wherein the connection cable set comprises at least one electrical connection cable which is guided from the vehicle body to at least one electrical component which is arranged on the lifting mast or on the load-bearing means, characterized in that the connection cable set has a length compensation means for compensating for different structural lengths of the lifting mast, wherein the connection cable set has a telescopic protection device within which the connection cable is arranged, wherein the protection device comprises a cable store in which the electrical connection cable is guided and stored so as to form a loop .
A method for assessing the risk of Sudden Cardiac Arrest (SCA), Sudden Cardiac Death (SCD), Ventricular Arrhythmia (VA) or Heart Failure (HF) in a patient, said method comprising the use of a diagnostic kit comprising: at least one probe for assessing the presence of one or more Single Nucleotide Polymorphisms (SNPs) associated with any one of Sudden Cardiac Arrest (SCA), Sudden Cardiac Death (SCD), Ventricular Arrhythmia (VA), or Heart Failure (HF) in a genetic sample; wherein the probe has a label capable of being detected by electrical, fluorescent or radioactive means, wherein the SNP is contained in any one of the nucleotide sequences of SEQ ID NO.'s 1-2, wherein at least one probe overlaps a polymorphic position in any one of SEQ ID NO.'s 1-2 where the polymorphic position is flanked on either the 5' and 3' side by a single base pair, to any number of base pairs flanking the 5' and 3' side of the polymorphic position sufficient to identify the SNP or result in a hybridization; wherein the assessment by the probe determines whether to apply treatment for Sudden Cardiac Arrest (SCA), Sudden Cardiac Death (SCD), Ventricular Arrhythmia (VA) or Heart Failure (HF) with a combination CRT pacemaker having defibrillation technology (CRT-D), an Implantable Cardioverter Defibrillator (ICD), pharmacological therapy, or biological therapy; and wherein the assessment is based on homozygosity for a T genotype in position 26 of SEQ ID NO. 1 or homozygosity for a T genotype in position 26 of SEQ ID NO. 2. at least one probe for assessing the presence of one or more Single Nucleotide Polymorphisms (SNPs) associated with any one of Sudden Cardiac Arrest (SCA), Sudden Cardiac Death (SCD), Ventricular Arrhythmia (VA), or Heart Failure (HF) in a genetic sample; wherein the probe has a label capable of being detected by electrical, fluorescent or radioactive means, wherein the SNP is contained in any one of the nucleotide sequences of SEQ ID NO.'s 1-2, wherein at least one probe overlaps a polymorphic position in any one of SEQ ID NO.'s 1-2 where the polymorphic position is flanked on either the 5' and 3' side by a single base pair, to any number of base pairs flanking the 5' and 3' side of the polymorphic position sufficient to identify the SNP or result in a hybridization; wherein the assessment by the probe determines whether to apply treatment for Sudden Cardiac Arrest (SCA), Sudden Cardiac Death (SCD), Ventricular Arrhythmia (VA) or Heart Failure (HF) with a combination CRT pacemaker having defibrillation technology (CRT-D), an Implantable Cardioverter Defibrillator (ICD), pharmacological therapy, or biological therapy; and wherein the assessment is based on homozygosity for a T genotype in position 26 of SEQ ID NO. 1 or homozygosity for a T genotype in position 26 of SEQ ID NO. 2.
A method , comprising: storing , by a computing system, template information that defines a plurality of component types and one or more display parameters identified for one or more user interfaces, wherein a component type specifies a set of one or more user interface element types included in a given component, and wherein a display parameter specifies how one or more components are to be displayed; receiving , by the computing system, a request to automatically generate a user interface, wherein the request specifies a data set to be displayed using the user interface; automatically generating , by the computer system, at least one user interface in response to the request, wherein the generating is performed by one or more machine learning engines that use the template information and the data set as inputs; providing , by the computer system, the at least one user interface to one or more users; receiving , by the computer system, user feedback associated with the at least one user interface, wherein the user feedback includes data corresponding to user interaction, with the at least one user interface, of a particular set of one or more users; selectively training , based on the data corresponding to the user interaction, at least one of the one or more machine learning engines to modify a manner in which the at least one user interface is generated by the one or more machine learning engines; and modifying, by the computer system, the template information based on the received user feedback including the data corresponding to user interaction. storing , by a computing system, template information that defines a plurality of component types and one or more display parameters identified for one or more user interfaces, wherein a component type specifies a set of one or more user interface element types included in a given component, and wherein a display parameter specifies how one or more components are to be displayed; receiving , by the computing system, a request to automatically generate a user interface, wherein the request specifies a data set to be displayed using the user interface; automatically generating , by the computer system, at least one user interface in response to the request, wherein the generating is performed by one or more machine learning engines that use the template information and the data set as inputs; providing , by the computer system, the at least one user interface to one or more users; receiving , by the computer system, user feedback associated with the at least one user interface, wherein the user feedback includes data corresponding to user interaction, with the at least one user interface, of a particular set of one or more users; selectively training , based on the data corresponding to the user interaction, at least one of the one or more machine learning engines to modify a manner in which the at least one user interface is generated by the one or more machine learning engines; and modifying, by the computer system, the template information based on the received user feedback including the data corresponding to user interaction.
A polyester polyol containing 1,3-propanediol having an alicyclic skeleton in a side chain, 3-methyl-1,5-pentanediol and a dibasic acid component as constituent components.