mhurhangee/patent-ind-claim-en huggingface dataset:
A method for wireless communications, comprising: determining , at an apparatus, whether to cease transmissions from the apparatus during a period of time designated for a first node to transmit to a second node based on at least one parameter received at the apparatus and a calculated path loss between the apparatus and the second node, wherein the at least one parameter is a channel parameter related to a channel between the first and second nodes and further wherein the apparatus is not the first or second node; and wherein the path loss is calculated, at the apparatus, based on a preamble contained in at least one packet transmitted by the second node. determining , at an apparatus, whether to cease transmissions from the apparatus during a period of time designated for a first node to transmit to a second node based on at least one parameter received at the apparatus and a calculated path loss between the apparatus and the second node, wherein the at least one parameter is a channel parameter related to a channel between the first and second nodes and further wherein the apparatus is not the first or second node; and wherein the path loss is calculated, at the apparatus, based on a preamble contained in at least one packet transmitted by the second node.
A method for predicting a performance indicator for a service in a network, the method being performed by a network node (2; 3; 4) of the network , the method comprising: obtaining (S100) measurement data of a metric affecting a service communicating via a radio access network, RAN, node , wherein the metric is independent of the service communicating via the RAN node; inputting (S110) the obtained measurement data into a prediction model for performance of the service communicating via the RAN node, wherein the prediction model has been trained with measurement data from the RAN node and measurement data from an end node ; and predicting (S120) the performance indicator for performance of the service in the network. obtaining (S100) measurement data of a metric affecting a service communicating via a radio access network, RAN, node , wherein the metric is independent of the service communicating via the RAN node; inputting (S110) the obtained measurement data into a prediction model for performance of the service communicating via the RAN node, wherein the prediction model has been trained with measurement data from the RAN node and measurement data from an end node ; and predicting (S120) the performance indicator for performance of the service in the network.
Panel part for a vehicle having a design part and having at least one carrier part , wherein the at least one carrier part has a basic structure and at least one support structure and is fastened to the design part with the intervention of the at least one support structure , wherein the carrier part is designed and by means of the at least one support structure fastened to the design part in such a manner that said carrier part conjointly with the design part forms a hollow profile which, when viewed in the cross section, is closed at least in portions; wherein the at least one support structure is connected to the basic structure by way of a connecting portion , which connecting portion has a reduced material thickness in comparison to the region of the basic structure , wherein the connecting portion with the reduced material thickness forms the transition towards the design part, and wherein the support structure comprises a leg which adjoins the basic structure ; wherein the design part comprises two area portions which run at a mutual angle and the leg of the support structure is fastened in the apex of the angle.
A system comprising a biochip comprising one or a plurality of reaction chambers, wherein each reaction chamber comprises a microfluidic inlet channel and a microfluidic outlet channel, wherein each reaction chamber is spaced less than 200 μm from a contact surface of the biochip substrate; and a thermal cycler, comprising a high heating and cooling capacity heat pump such as a high power output Peltier device as a temperature control element (TCE) comprising means for heating and cooling, a thermosensor, a controller for receiving signals from the thermosensor, and a power supply, wherein a first surface of said TCE is adapted to receive the biochip, and a further thermosensor housed in an enclosure formed from the same material as the biochip wherein the enclosure is placed next to the biochip on the first surface of the TCE and holds the further thermosensor at the same distance from the first surface of the TCE as a reaction chamber on the biochip when in contact with the first surface of the TCE, wherein said further thermosensor provides feedback to said TCE to set or maintain a solution in the reaction chamber at a desired temperature, and wherein the first surface of the TCE is in thermal communication with the contact surface of the biochip substrate by placing the substrate directly on the TCE. each reaction chamber comprises a microfluidic inlet channel and a microfluidic outlet channel, wherein each reaction chamber is spaced less than 200 μm from a contact surface of the biochip substrate; and a thermal cycler, comprising a high heating and cooling capacity heat pump such as a high power output Peltier device as a temperature control element (TCE) comprising means for heating and cooling, a thermosensor, a controller for receiving signals from the thermosensor, and a power supply, wherein a first surface of said TCE is adapted to receive the biochip, and a further thermosensor housed in an enclosure formed from the same material as the biochip wherein the enclosure is placed next to the biochip on the first surface of the TCE and holds the further thermosensor at the same distance from the first surface of the TCE as a reaction chamber on the biochip when in contact with the first surface of the TCE, wherein said further thermosensor provides feedback to said TCE to set or maintain a solution in the reaction chamber at a desired temperature, and
A Band Width Part, BWP, switching method, comprising: acquiring Beam Failure Recovery, BFR, configuration information by a terminal device , wherein the BFR configuration information comprises first resource information and identifier information of a first search space, the first resource information comprises a physical random access channel, PRACH, wherein the BFR configuration information corresponds to a first uplink BWP, the identifier information of the first search space corresponds to a first downlink BWP, and identifier information of the first uplink BWP is the same as identifier information of the first downlink BWP; characterized in that determining, by the terminal device, whether the first uplink BWP is currently activated when a random access condition triggered by BFR is satisfied; when the first uplink BWP is currently activated, switching an downlink BWP activated currently to the first downlink BWP if the downlink BWP activated currently is not the first downlink BWP, and switching the first downlink BWP to an active state; and performing the random access procedure on the first uplink BWP and the first downlink BWP . acquiring Beam Failure Recovery, BFR, configuration information by a terminal device , wherein the BFR configuration information comprises first resource information and identifier information of a first search space, the first resource information comprises a physical random access channel, PRACH, wherein the BFR configuration information corresponds to a first uplink BWP, the identifier information of the first search space corresponds to a first downlink BWP, and identifier information of the first uplink BWP is the same as identifier information of the first downlink BWP; characterized in that determining, by the terminal device, whether the first uplink BWP is currently activated when a random access condition triggered by BFR is satisfied; when the first uplink BWP is currently activated, switching an downlink BWP activated currently to the first downlink BWP if the downlink BWP activated currently is not the first downlink BWP, and switching the first downlink BWP to an active state; and performing the random access procedure on the first uplink BWP and the first downlink BWP .
Sliding device (110; 210) for a vehicle seat, comprising a pair of parallel tracks (120a, 120b; 220a, 220b), each comprising a lower rail (130a, 130b; 230a, 230b) and an upper rail (140a, 140b; 240a, 240b), each of said upper rails being constrained to a respective lower rail, but slidable relative to said lower rail, wherein said lower rails (130a, 130b; 230a, 230b) are provided with a plurality of apertures (132a, 132b; 232a, 232b) arranged along the longitudinal axes of said lower rails, wherein said sliding device is provided with a locking arrangement including two locking assemblies, one for each of said tracks, wherein each of said locking assemblies (101a, 101b; 201a, 201b) comprises a plurality of locking pins (105a, 105b; 203a, 203b), which are configured to move from a locking configuration, in which they penetrate into corresponding apertures of the respective lower rail, to an unlocking configuration, in which they are disengaged from said apertures of said lower rail, and vice versa, wherein all said locking pins (105a, 105b; 203a, 203b) simultaneously or quasi-simultaneously penetrate into corresponding apertures (132a, 132b; 232a, 232b) of said lower rails (130a, 130b; 230a, 230b) when they are moved from said unlocking configuration to said locking configuration, wherein the cross-section of said apertures (132a, 132b; 232a, 232b) of said lower rails (130a, 130b; 230a, 230b) substantially has the same shape and size of the cross-section of said locking pins (105a, 105b; 203a, 203b), and wherein the distance (d P ) between the longitudinal axes of two adjacent locking pins is substantially equal to the distance (d A ) between the longitudinal axes of two adjacent apertures or to a multiple thereof, and in that all said apertures (132a, 132b; 232a, 232b) of said lower rails (130a, 130b; 230a, 230b) substantially have the same shape and size when viewed in cross-section, and wherein all said locking pins (105a, 105b; 203a, 203b) substantially have the same shape and size when viewed in cross-section, characterized in that said apertures (132a, 132b; 232a, 232b) of said lower rails (130a, 130b; 230a, 230b) are made as circular through-holes and the locking pins (105a, 105b; 203a, 203b) have a cylindrical body, and wherein the diameter (D A ) of said apertures of said lower rails is substantially equal to the diameter (D P ) of said locking pins.
A system comprising: a) a surgical instrument comprising a rechargeable battery and a reusable electronics module , wherein the reusable electronics module contains all electronic components of the surgical instrument, wherein the rechargeable battery and reusable electronics module are each removable from the surgical instrument; b) a base comprising a housing and a first slot and a second slot , wherein the first slot is shaped to receive the rechargeable battery from the surgical instrument and the second slot is shaped to receive the reusable electronics module from the surgical instrument; and c) a first indicator and a second indicator in communication with the base, wherein the indicators are in communication with respective slots, wherein the base is configured to detect component charge level for the rechargeable battery placed into the first slot, and to detect a status for the reusable electronics module placed into the second slot, wherein the indicators are configured to provide a signal to a user regarding the charge level and the status of the reusable electronics module. a) a surgical instrument comprising a rechargeable battery and a reusable electronics module , wherein the reusable electronics module contains all electronic components of the surgical instrument, wherein the rechargeable battery and reusable electronics module are each removable from the surgical instrument; b) a base comprising a housing and a first slot and a second slot , wherein the first slot is shaped to receive the rechargeable battery from the surgical instrument and the second slot is shaped to receive the reusable electronics module from the surgical instrument; and c) a first indicator and a second indicator in communication with the base, wherein the indicators are in communication with respective slots, wherein the base is configured to detect component charge level for the rechargeable battery placed into the first slot, and to detect a status for the reusable electronics module placed into the second slot, wherein the indicators are configured to provide a signal to a user regarding the charge level and the status of the reusable electronics module.
Articulated rod of an orthopaedic device comprising a pair of arms , two cover plates , a polycentric joint articulating said pair of arms in mutual rotation, where said rotation comprises a flexion rotation direction and an extension rotation direction, at least one removable insert , selectively engageable so as to block said flexion and/or extension rotation within a predetermined angular width, at least one stop pin adapted to be in position axially engaging at least one through hole of said at least one insert and at least one through hole of at least one of the two cover plates , characterised in that said rod further comprises a pair of half covers and guide means coupled to each other in order to slidably associate at least one half cover of said pair of half covers , where said guide means comprise a first element integral with said at least one cover plate and a second element integral with said at least one half cover , said pair of half covers being adapted to pass from an open position to a closed position, where said closed position provides for at least one element of said at least one half cover to enter into interference with at least one portion of said at least one stop pin holding in position said at least one stop pin with respect to the translation along its own axis.
A method for transferring micro-LEDs, comprising: forming a mask layer on the backside of a laser-transparent original substrate , wherein micro-LEDs are formed on the front-side of the original substrate ; bringing the micro-LEDs on the original substrate in contact with preset pads on a receiving substrate ; and irradiating the original substrate from the original substrate side with laser through the mask layer, to lift-off micro-LEDs from the original substrate, wherein during the micro-LEDs are lifted-off from the original substrate , a contactless action is applied onto the micro-LEDs, and the contactless action is electromagnetic force. forming a mask layer on the backside of a laser-transparent original substrate , wherein micro-LEDs are formed on the front-side of the original substrate ; bringing the micro-LEDs on the original substrate in contact with preset pads on a receiving substrate ; and irradiating the original substrate from the original substrate side with laser through the mask layer, to lift-off micro-LEDs from the original substrate, wherein during the micro-LEDs are lifted-off from the original substrate , a contactless action is applied onto the micro-LEDs, and the contactless action is electromagnetic force.
An immunomodulator for use in the treatment of a bacterial infection in a subject, comprising administering a therapeutically effective amount of the immunomodulator to the subject; wherein the immunomodulator comprises Chemokine (C-C motif) ligand 3 (CCL3) having an Asp>26Ala substitution in the mature form of human CCL3 of (SEQ ID NO: 2); and wherein the bacteria comprises Methicillin-resistant Staphylococcus aureus (MRSA) or Pseudomonas aeruginosa.
A method performed in a machine-to-machine or internet of things, M2M/IoT, system by a first service layer entity implemented on an apparatus of a communications network, the method comprising: receiving, from a computing device, a data continuity service request, wherein the data continuity service request comprises information associated with the computing device; characterized by determining, based on the data continuity service request, to configure a second service layer entity for performing a data operation on data associated with the computing device; configuring the second service layer entity for performing a data operation on data associated with the computing device; receiving, from the computing device, a request to perform a data operation, wherein the request to perform the data operation identifies a virtual resource associated with the first service layer entity; and retargeting, to the second service layer entity, a request to perform a data operation on at least a portion of the data. receiving, from a computing device, a data continuity service request, wherein the data continuity service request comprises information associated with the computing device; characterized by determining, based on the data continuity service request, to configure a second service layer entity for performing a data operation on data associated with the computing device; configuring the second service layer entity for performing a data operation on data associated with the computing device; receiving, from the computing device, a request to perform a data operation, wherein the request to perform the data operation identifies a virtual resource associated with the first service layer entity; and retargeting, to the second service layer entity, a request to perform a data operation on at least a portion of the data.
An inverse-planning method for generating a treatment plan specifying a non-photon irradiation of a patient including a target volume, TV, the method implemented in a treatment planning system and comprising: obtaining a first plan goal in terms of a first numerical condition on the treatment plan's photon-equivalent dose as computed using a first relative biological effectiveness, RBE, factor in accordance with a first RBE model; obtaining a second plan goal in terms of a second numerical condition on the treatment plan's photon-equivalent dose as computed using a second, different RBE factor in accordance with a second RBE model; and generating the treatment plan by an optimization process aiming to satisfy the first, second and any further plan goals, wherein at least one of the following options holds: a) the first and second plan goals apply to volumes which either are included in the TV or are completely or partially separate from the TV, wherein either the volumes coincide or one is a subset of the other; b) the first and second RBE factors are variable. obtaining a first plan goal in terms of a first numerical condition on the treatment plan's photon-equivalent dose as computed using a first relative biological effectiveness, RBE, factor in accordance with a first RBE model; obtaining a second plan goal in terms of a second numerical condition on the treatment plan's photon-equivalent dose as computed using a second, different RBE factor in accordance with a second RBE model; and generating the treatment plan by an optimization process aiming to satisfy the first, second and any further plan goals, wherein at least one of the following options holds: a) the first and second plan goals apply to volumes which either are included in the TV or are completely or partially separate from the TV, wherein either the volumes coincide or one is a subset of the other; b) the first and second RBE factors are variable. a) the first and second plan goals apply to volumes which either are included in the TV or are completely or partially separate from the TV, wherein either the volumes coincide or one is a subset of the other; b) the first and second RBE factors are variable.
A control device for a belt transfer type multi-function device printing an image transferred on a belt to paper moving between a transfer roller and a belt roller , wherein the control device determines whether corresponding paper is security paper according to a detection value from a security paper detection sensor installed on a transfer path of paper starting from a paper tray of the belt transfer type multi-function device , and performs control such that security paper is normally printed and plain paper is ejected as blank paper, wherein the control device performs controlling such that an image to be printed on paper already caught between the transfer roller and the belt roller is printed as it is, and if the control device determines that next paper along a movement direction of paper is plain paper, the control device performs controlling the belt transfer type multi-function device by ON/OFF switching such that movement of the next paper is stopped on the transfer path of paper before the next paper is positioned between the transfer roller and the belt roller , the image already transferred on the transfer belt is deleted in a state in which the next paper is maintained to be stopped on the transfer path of paper, and the next paper in a stopped state is ejected as a blank paper through an ejection port of printed paper along the transfer path of paper, with the image already transferred to the transfer belt , which is to be printed on the next paper along the movement direction of paper, being not printed on the next paper. wherein the control device determines whether corresponding paper is security paper according to a detection value from a security paper detection sensor installed on a transfer path of paper starting from a paper tray of the belt transfer type multi-function device , and performs control such that security paper is normally printed and plain paper is ejected as blank paper, wherein the control device performs controlling such that an image to be printed on paper already caught between the transfer roller and the belt roller is printed as it is, and if the control device determines that next paper along a movement direction of paper is plain paper, the control device performs controlling the belt transfer type multi-function device by ON/OFF switching such that movement of the next paper is stopped on the transfer path of paper before the next paper is positioned between the transfer roller and the belt roller , the image already transferred on the transfer belt is deleted in a state in which the next paper is maintained to be stopped on the transfer path of paper, and the next paper in a stopped state is ejected as a blank paper through an ejection port of printed paper along the transfer path of paper, with the image already transferred to the transfer belt , which is to be printed on the next paper along the movement direction of paper, being not printed on the next paper.