mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: exposing functionality via an application programming interface by an operating system of a computing device to one or more applications, the application programming interface is configured to calculate an effect of inertia for movement in a user interface; and calculating an inertia rest position for the movement in the user interface by the operating system using a plurality of phases based on one or more rest points specified by the one or more applications via interaction with the application programming interface of the operating system, the calculating is performed by employing the plurality of phases in the listed order; wherein the plurality of phases include: a default phase in which a proposed inertia rest position is calculated by determining the one or more rest points based on a position or velocity of a subject of movement at a start of inertia; a position phase in which the one or more rest points are used to adjust the proposed inertia rest position as the one or more rest points are evaluated in turn, starting with a first point of the one or more rest points closest to the start of inertia and continuing in a direction of movement to determine the inertia rest position; and a range phase in which the subject of movement is forced to stop at a specific location when falling within a predefined range around the specific location to generate a final location of the inertia rest position; and managing the calculated effect of inertia for the movement on the user interface by the operating system based on the two or more rest points specified using one or more parametric curves by the one or more applications via interaction with the application programming interface. exposing functionality via an application programming interface by an operating system of a computing device to one or more applications, the application programming interface is configured to calculate an effect of inertia for movement in a user interface; and calculating an inertia rest position for the movement in the user interface by the operating system using a plurality of phases based on one or more rest points specified by the one or more applications via interaction with the application programming interface of the operating system, the calculating is performed by employing the plurality of phases in the listed order; a default phase in which a proposed inertia rest position is calculated by determining the one or more rest points based on a position or velocity of a subject of movement at a start of inertia; a position phase in which the one or more rest points are used to adjust the proposed inertia rest position as the one or more rest points are evaluated in turn, starting with a first point of the one or more rest points closest to the start of inertia and continuing in a direction of movement to determine the inertia rest position; and a range phase in which the subject of movement is forced to stop at a specific location when falling within a predefined range around the specific location to generate a final location of the inertia rest position; and
An apparatus comprising: circuitry; a scenario analyzer for execution by the circuitry, the scenario analyzer being configured to determine a power-affecting operational setting based on at least one operating condition of a device , the at least one operating condition of the device being configured to comprise an operating condition of the device when communicatively coupled to another device ; an operational setting module for execution by the circuitry, the operational setting module being configured to set a first operational setting of the device based on the determined power-affecting operational setting; and at least one collector module for execution by the circuitry, the at least one collector module being configured to dynamically collect the at least one operating condition of the device when communicatively coupled to the another device , and to provide the at least one operating condition to the scenario analyzer , wherein the scenario analyzer is configured to determine the power-affecting operational setting based on plural differing types of operating conditions of the device , the plural differing types of operating conditions of the device each being an operating condition of the device when communicatively coupled to the another device and wherein the plural differing types of operating conditions are ones selected from a list of types including: platform state information; Universal Serial Bus ,USB, state information; video state information; user preference state information; and Internet Protocol ,IP, data path state information. circuitry; a scenario analyzer for execution by the circuitry, the scenario analyzer being configured to determine a power-affecting operational setting based on at least one operating condition of a device , the at least one operating condition of the device being configured to comprise an operating condition of the device when communicatively coupled to another device ; an operational setting module for execution by the circuitry, the operational setting module being configured to set a first operational setting of the device based on the determined power-affecting operational setting; and at least one collector module for execution by the circuitry, the at least one collector module being configured to dynamically collect the at least one operating condition of the device when communicatively coupled to the another device , and to provide the at least one operating condition to the scenario analyzer , wherein the scenario analyzer is configured to determine the power-affecting operational setting based on plural differing types of operating conditions of the device , the plural differing types of operating conditions of the device each being an operating condition of the device when communicatively coupled to the another device and wherein the plural differing types of operating conditions are ones selected from a list of types including: platform state information; Universal Serial Bus ,USB, state information; video state information; user preference state information; and Internet Protocol ,IP, data path state information.
A method of making an optical fibre preform comprising: providing a hollow outer tube of glass; providing a hollow primary capillary tube of glass with an outer diameter smaller than an inner diameter of the outer tube; positioning the primary capillary tube inside the outer tube such that an outer surface of the primary capillary tube lies against an inner surface of the outer tube along a contact line parallel to the longitudinal axes (X) of the primary capillary tube and the outer tube; and bonding the primary capillary tube into its position inside the outer tube by directing a laser beam onto a surface of the outer tube or the primary capillary tube at one or more locations aligned with the contact line. providing a hollow outer tube of glass; providing a hollow primary capillary tube of glass with an outer diameter smaller than an inner diameter of the outer tube; positioning the primary capillary tube inside the outer tube such that an outer surface of the primary capillary tube lies against an inner surface of the outer tube along a contact line parallel to the longitudinal axes (X) of the primary capillary tube and the outer tube; and bonding the primary capillary tube into its position inside the outer tube by directing a laser beam onto a surface of the outer tube or the primary capillary tube at one or more locations aligned with the contact line.
A photoelectric conversion element comprising a conductive layer , a photoelectric conversion layer , and a counter electrode , at least the photoelectric conversion layer being filled with an electrolyte, wherein, in the photoelectric conversion layer , at least one of a dye formed of a compound having no more than one thiocyanate group and a dye formed of a compound not having a thiocyanate group is adsorbed onto a porous semiconductor layer formed of a semiconductor material, and the electrolyte includes at least one of pyrazole and a pyrazole derivative.
A work machine control system , comprising: an acquisition process unit that acquires a detection result of an object (Ob1) around a machine body of a work machine in a state incapable of operating the work machine ; and a limit process unit characterised in that the limit process unit creates a limit state capable of limitedly operating the work machine when the detection result meets a predetermined condition and then a gate lock lever is so operated as to create a state capable of operating the work machine . an acquisition process unit that acquires a detection result of an object (Ob1) around a machine body of a work machine in a state incapable of operating the work machine ; and a limit process unit characterised in that the limit process unit creates a limit state capable of limitedly operating the work machine when the detection result meets a predetermined condition and then a gate lock lever is so operated as to create a state capable of operating the work machine .
A tire comprising a tread , a crown reinforcement , a carcass reinforcement with at least one ply wound about a pair of bead cores and through two sidewalls of the tire , wherein the tire further comprises a sidewall layer as a reinforcement structure disposed adjacent a part of the carcass reinforcement within at least one of the sidewalls , the sidewall layer comprising a plurality of cords, each cord including: (i) one nylon cord having an S twist with from 4 to 8 twists per 2.54 cm, one aramid cord having a Z twist with from 4 to 8 twists per 2.54 cm, and the nylon cord and the aramid cord being twisted together with an S twist having from 3 to 7 twists per 2.54 cm; or (ii) one nylon cord having an Z twist with from 4 to 8 twists per 2.54 cm, one aramid cord having a S twist with from 4 to 8 twists per 2.54 cm, and the nylon cord and the aramid cord being twisted together with an Z twist having from 3 to 7 twists per 2.54 cm; and wherein the twists per 2.54 cm of the nylon cord and the twists per 2.54 cm of the aramid cord are lower than the twists per 2.54 cm the nylon cord and the aramid cord are twisted together. (i) one nylon cord having an S twist with from 4 to 8 twists per 2.54 cm, one aramid cord having a Z twist with from 4 to 8 twists per 2.54 cm, and the nylon cord and the aramid cord being twisted together with an S twist having from 3 to 7 twists per 2.54 cm; or (ii) one nylon cord having an Z twist with from 4 to 8 twists per 2.54 cm, one aramid cord having a S twist with from 4 to 8 twists per 2.54 cm, and the nylon cord and the aramid cord being twisted together with an Z twist having from 3 to 7 twists per 2.54 cm;
A method of resource scheduling in a wireless communication network, the network comprising N neighbouring cells indexed by i which share the same frequency band, where i =0,...,N-1, N>=3, said method comprising: dividing the available frequency resources of the frequency band into N subsets indexed by j , where j =0,...,N-1, wherein each of the available frequency resources are assigned to only one of the N subsets and that the frequency resources in each of the subsets are not consecutive; and for each downlink subframe of a frame, allocating each of the N subsets to a respective one of the N cells, such that each available frequency resource is allocated to only one of the N cells, for the downlink subframe, wherein the subsets allocated to each of the cells vary among downlink subframes indexed by k , where k =0,...,K-1, K being the number of downlink subframes in the frame, and wherein Physical Cell ID, PCI, values of the N cells mod N are equal to 0, 1, ..., N-1 respectively, and wherein said allocating the N subsets comprises: obtaining the index j of the subset to be allocated to the ith cell in the kth downlink subframe by j =(PCI value of the ith cell + k ) mod N; and informing the N cells of the allocation. dividing the available frequency resources of the frequency band into N subsets indexed by j , where j =0,...,N-1, wherein each of the available frequency resources are assigned to only one of the N subsets and that the frequency resources in each of the subsets are not consecutive; and for each downlink subframe of a frame, allocating each of the N subsets to a respective one of the N cells, such that each available frequency resource is allocated to only one of the N cells, for the downlink subframe, wherein the subsets allocated to each of the cells vary among downlink subframes indexed by k , where k =0,...,K-1, K being the number of downlink subframes in the frame, and wherein Physical Cell ID, PCI, values of the N cells mod N are equal to 0, 1, ..., N-1 respectively, and wherein said allocating the N subsets comprises: obtaining the index j of the subset to be allocated to the ith cell in the kth downlink subframe by j =(PCI value of the ith cell + k ) mod N; and informing the N cells of the allocation.
A method, in a home base station, for supporting carrier aggregation, the home base station is a femto cell, wherein the method comprises: transmitting , from the home base station, two carrier signals on different frequencies to one or more user devices that support multi-carrier operation; broadcasting , from the home base station, different global cell identifiers corresponding to different cells and performing a S1 or X2 setup using an information element, IE, indicating that the home base station is supporting carrier aggregation wherein the home base station supporting carrier aggregation adopts same E-UTRAN Cell Global Identifier,E-CGI, addressing scheme used by normal eNBs with a common eNB-ID and different cell-IDs for each cell or carrier; wherein the method further comprises: sending and receiving control messages for both of the two carrier signals over a single control-plane interface between the home base station and either a core network node or a home base station gateway, with a single S1 or luh connection in the control plane interface and wherein the home base station gateway is a wireless network node that connects the home base station to the core network. transmitting , from the home base station, two carrier signals on different frequencies to one or more user devices that support multi-carrier operation; broadcasting , from the home base station, different global cell identifiers corresponding to different cells and performing a S1 or X2 setup using an information element, IE, indicating that the home base station is supporting carrier aggregation wherein the home base station supporting carrier aggregation adopts same E-UTRAN Cell Global Identifier,E-CGI, addressing scheme used by normal eNBs with a common eNB-ID and different cell-IDs for each cell or carrier; wherein the method further comprises: sending and receiving control messages for both of the two carrier signals over a single control-plane interface between the home base station and either a core network node or a home base station gateway, with a single S1 or luh connection in the control plane interface and wherein the home base station gateway is a wireless network node that connects the home base station to the core network.
An assembly comprising a bonding jig, a first object , and a second object , the bonding jig comprising a jig body defining a positioning chamber which has an opening and is configured to position a first adhesive surface of the first object , the first adhesive surface being a surface of the first object to be adhered to a second adhesive surface of the second object , characterized in that an anti-sticking layer is provided on each of an upper surface of a periphery of the opening, the upper surface facing the second adhesive surface , and an inner circumferential wall surface of the opening, the first object and the second object are connected via an adhesive between the first adhesive surface and the second adhesive surface , and the anti-sticking layer provided on the upper surface of the periphery of the opening is in contact with the adhesive .
Method for the preparation of keto-functionalized aromatic (meth)acrylates by reacting keto-functionalized aromatic alcohols or keto-functionalized aromatic amines with (meth)acrylic anhydride, in which reactants, products and catalyst are present together in the reaction matrix at a reaction temperature between 50°C and 120°C, the method being characterized in that the residence time of the reactants, products and catalysts is restricted from 0.1 to at most 4 hours and (meth)acrylic anhydride is used at a content of (meth)acrylic acetic anhydride of <4.5%.
A call scenario mode adjustment method, comprising: synchronizing user-configured calendar information, wherein the calendar information comprises an event type and time information of event occurrence; in response to a user-related call occurring within a time set by the time information, acquiring the event type corresponding to the time information; and matching a corresponding call scenario mode according to the acquired event type, and processing the call based on a preset strategy corresponding to the matched call scenario mode; wherein the time information comprises a time type and a time period during which the event occurs, and acquiring the event type corresponding to the time information comprises: in a case where the time period contains a plurality of events, sequencing priorities of the plurality of events according to the time type; and selecting an event type of an event having a highest priority as the event type corresponding to the time information. synchronizing user-configured calendar information, wherein the calendar information comprises an event type and time information of event occurrence; in response to a user-related call occurring within a time set by the time information, acquiring the event type corresponding to the time information; and matching a corresponding call scenario mode according to the acquired event type, and processing the call based on a preset strategy corresponding to the matched call scenario mode; wherein the time information comprises a time type and a time period during which the event occurs, and acquiring the event type corresponding to the time information comprises: in a case where the time period contains a plurality of events, sequencing priorities of the plurality of events according to the time type; and selecting an event type of an event having a highest priority as the event type corresponding to the time information. in a case where the time period contains a plurality of events, sequencing priorities of the plurality of events according to the time type; and selecting an event type of an event having a highest priority as the event type corresponding to the time information.
A method for a Relay User Equipment, UE, to operate for a Remote UE, the method comprising: establishing, by the Relay UE, one-to-one direct communication with the Remote UE; receiving, by the Relay UE, a Radio Resource Control, RRC, reconfiguration message or an RRC connection reconfiguration message from a base station; transmitting, by the Relay UE, an RRC Reconfiguration Complete message in response to reception of the RRC reconfiguration message or the RRC connection reconfiguration message, wherein the RRC reconfiguration message or the RRC connection reconfiguration message includes identification information of a Data Radio Bearer, DRB, shared with the Remote UE and information on a Protocol Data Unit, PDU, session to be deleted or released in the DRB; and delivering, by an Access Stratum, AS, layer of the Relay UE to a Non-Access Stratum, NAS, layer of the Relay UE, information that a User Plane, UP, connection of the PDU session is released, based on the received RRC reconfiguration message or the RRC connection reconfiguration message. establishing, by the Relay UE, one-to-one direct communication with the Remote UE; receiving, by the Relay UE, a Radio Resource Control, RRC, reconfiguration message or an RRC connection reconfiguration message from a base station; transmitting, by the Relay UE, an RRC Reconfiguration Complete message in response to reception of the RRC reconfiguration message or the RRC connection reconfiguration message, wherein the RRC reconfiguration message or the RRC connection reconfiguration message includes identification information of a Data Radio Bearer, DRB, shared with the Remote UE and information on a Protocol Data Unit, PDU, session to be deleted or released in the DRB; and delivering, by an Access Stratum, AS, layer of the Relay UE to a Non-Access Stratum, NAS, layer of the Relay UE, information that a User Plane, UP, connection of the PDU session is released, based on the received RRC reconfiguration message or the RRC connection reconfiguration message.
A wet cleaning apparatus comprising: a cleaner head having at least one dirt inlet , and a porous material covering the at least one dirt inlet; and an underpressure generator arrangement comprising an underpressure generator configured to provide a flow inside the wet cleaning apparatus for drawing fluid into the at least one dirt inlet through the porous material, characterised in that the underpressure generator arrangement is configured to control the flow based on a pressure on said inside of the wet cleaning apparatus between the porous material and the underpressure generator. a cleaner head having at least one dirt inlet , and a porous material covering the at least one dirt inlet; and an underpressure generator arrangement comprising an underpressure generator configured to provide a flow inside the wet cleaning apparatus for drawing fluid into the at least one dirt inlet through the porous material, characterised in that the underpressure generator arrangement is configured to control the flow based on a pressure on said inside of the wet cleaning apparatus between the porous material and the underpressure generator.