mhurhangee/ep-ind-claims huggingface dataset:
A camera module comprising a scanning Tele camera, the STC (102, 200, 300) comprising: an object side optical path folding element O-OPFE (202, 302) for folding a first optical path OP1 to a second optical path OP2; an image side optical path folding element I-OPFE (204, 304) for folding OP2 to a third optical path OP3; an I-OPFEactuator (214, 314); a lens; a lens actuator; and an image sensor; characterized by further comprising: an O-OPFE actuator (212, 312); wherein STC (102, 200, 300) has a STC native field-of-view n-FOV T, wherein the O-OPFE actuator (212, 312) is configured to rotate the O-OPFE (202, 302) around a first axis and the I-OPFE actuator (214, 314) is configured to rotate the I-OPFE (204, 304) around a second axis for scanning a scene with the n-FOV T, wherein the lens actuator is configured to move the lens for focusing along a third axis, and wherein the first axis is perpendicular to the second axis and parallel to the third axis, and wherein the camera module is divided into a first region having a module region height H M and a second region having a shoulder region height H S < H M, the lens having a maximum aperture height H A, all heights being measured along OP1, wherein H S < H A + 3mm. an object side optical path folding element O-OPFE (202, 302) for folding a first optical path OP1 to a second optical path OP2; an image side optical path folding element I-OPFE (204, 304) for folding OP2 to a third optical path OP3; an I-OPFEactuator (214, 314); a lens; a lens actuator; and an image sensor; characterized by further comprising: an O-OPFE actuator (212, 312); wherein STC (102, 200, 300) has a STC native field-of-view n-FOV T, wherein the O-OPFE actuator (212, 312) is configured to rotate the O-OPFE (202, 302) around a first axis and the I-OPFE actuator (214, 314) is configured to rotate the I-OPFE (204, 304) around a second axis for scanning a scene with the n-FOV T, wherein the lens actuator is configured to move the lens for focusing along a third axis, and wherein the first axis is perpendicular to the second axis and parallel to the third axis, and wherein the camera module is divided into a first region having a module region height H M and a second region having a shoulder region height H S < H M, the lens having a maximum aperture height H A, all heights being measured along OP1, wherein H S < H A + 3mm. an O-OPFE actuator (212, 312); wherein STC (102, 200, 300) has a STC native field-of-view n-FOV T, wherein the O-OPFE actuator (212, 312) is configured to rotate the O-OPFE (202, 302) around a first axis and the I-OPFE actuator (214, 314) is configured to rotate the I-OPFE (204, 304) around a second axis for scanning a scene with the n-FOV T, wherein the lens actuator is configured to move the lens for focusing along a third axis, and wherein the first axis is perpendicular to the second axis and parallel to the third axis, and wherein the camera module is divided into a first region having a module region height H M and a second region having a shoulder region height H S < H M, the lens having a maximum aperture height H A, all heights being measured along OP1, wherein H S < H A + 3mm.
A method for avoiding handover failure by a source base station, BS, the method comprising: transmitting, to a target BS by the source BS, first information indicating a local network identifier corresponding to the source BS and second information indicating a local sub network corresponding to the source BS; receiving, from the target BS by the source BS, third information indicating a local network identifier corresponding to the target BS and fourth information indicating a local sub network corresponding to the target BS; determining, by the source BS, to perform a handover of a user equipment, UE, from the source BS to the target BS; determining, by the source BS, whether the target BS connects with the local gateway, LGW, serving the UE at the source BS, based on the first, second, third and fourth information, when deciding to perform the handover of the UE; releasing, by the source BS, the resources for a local ip access, LIPA, connection of the UE, when the target BS does not connect with the LGW serving the UE at the source BS, this being determined in case that the first information and the third information are different, and in case that the second information and the fourth information are different; and transmitting, by the source BS to a source mobility management entity, MME, a handover request message including a closed subscriber group, CSG, ID of the target BS. transmitting, to a target BS by the source BS, first information indicating a local network identifier corresponding to the source BS and second information indicating a local sub network corresponding to the source BS; receiving, from the target BS by the source BS, third information indicating a local network identifier corresponding to the target BS and fourth information indicating a local sub network corresponding to the target BS; determining, by the source BS, to perform a handover of a user equipment, UE, from the source BS to the target BS; determining, by the source BS, whether the target BS connects with the local gateway, LGW, serving the UE at the source BS, based on the first, second, third and fourth information, when deciding to perform the handover of the UE; releasing, by the source BS, the resources for a local ip access, LIPA, connection of the UE, when the target BS does not connect with the LGW serving the UE at the source BS, this being determined in case that the first information and the third information are different, and in case that the second information and the fourth information are different; and transmitting, by the source BS to a source mobility management entity, MME, a handover request message including a closed subscriber group, CSG, ID of the target BS.
A method of producing a wavelength converting member formed as a sheet, the wavelength converting member including a quantum dot layer having quantum dots, and a barrier film (3, 4) provided on at least both sides of the quantum dot layer, wherein the quantum dot layer contains a thickening agent, the method comprising: forming the barrier film (3, 4) from a material having a moisture vapor transmission rate (WVTR) < 9 g/(m 2 ·d); and characterised by compression-bonding the barrier film (3, 4) onto the quantum dot layer forming the barrier film (3, 4) from a material having a moisture vapor transmission rate (WVTR) < 9 g/(m 2 ·d); and characterised by compression-bonding the barrier film (3, 4) onto the quantum dot layer
A method of treating fabrics comprising the steps of: (i) providing a fabric comprising an ester containing compound pre-deposited thereon; and (ii) contacting the fabric with an aqueous medium comprising an acyl transferase enzyme and a peroxide source, wherein the acyl transferase enzyme causes generation of peracid in situ in the aqueous medium. (i) providing a fabric comprising an ester containing compound pre-deposited thereon; and (ii) contacting the fabric with an aqueous medium comprising an acyl transferase enzyme and a peroxide source, wherein the acyl transferase enzyme causes generation of peracid in situ in the aqueous medium.
A method for measuring performance of a browser by monitoring operation of a web page being rendered by the browser, the web page including embedded code for executing a performance monitoring process, the method comprising: executing the performance monitoring process on the web page as an initial operation that the browser performs on the web page; determining, by the performance monitoring process, whether to capture performance of the web page; responsive to determining to capture performance of the web page, determining a level of reporting to be performed, the level selected from predetermined levels of reporting each corresponding to an amount of data to record; identifying embedded objects referenced within the web page by polling a web page object model, wherein the web page object model is maintained by the browser as the browser parses the web page; for the identified objects, tracking a performance metric associated with each object by: adding an object handler to the web page object model that allows access to the objects; and using the object handler to track events associated with the objects and capture timestamps of the tracked events; performing, at the browser, post-processing on the performance metrics of objects referenced by the web page to create a performance record for that web page in accordance with the determined level of reporting; and after creation of the performance record, transferring the performance record from the browser to a remote server for analysis of performance of web page operation in the browser. executing the performance monitoring process on the web page as an initial operation that the browser performs on the web page; determining, by the performance monitoring process, whether to capture performance of the web page; responsive to determining to capture performance of the web page, determining a level of reporting to be performed, the level selected from predetermined levels of reporting each corresponding to an amount of data to record; identifying embedded objects referenced within the web page by polling a web page object model, wherein the web page object model is maintained by the browser as the browser parses the web page; for the identified objects, tracking a performance metric associated with each object by: adding an object handler to the web page object model that allows access to the objects; and using the object handler to track events associated with the objects and capture timestamps of the tracked events; adding an object handler to the web page object model that allows access to the objects; and using the object handler to track events associated with the objects and capture timestamps of the tracked events; performing, at the browser, post-processing on the performance metrics of objects referenced by the web page to create a performance record for that web page in accordance with the determined level of reporting; and after creation of the performance record, transferring the performance record from the browser to a remote server for analysis of performance of web page operation in the browser.
A method for driving a Time-of-Flight system for use with an illumination system being adapted to illuminate a scene with a modulated signal, the ToF system having an imaging sensor comprising at least one pixel, said pixel comprising taps driven by modulated driving signals having substantially the same frequency as the modulated signal for detecting the modulated signal reflected from the scene, the method comprising, for each pixel, the steps of: - determining at least a first and a second pair of taps; and - driving each pair of taps to detect the reflected modulated signal during a predetermined number N of cycles of the modulated signal, characterised in that the at least first and second pair of taps are driven sequentially wherein the driving signals for a pair of taps 'y', y going from 0 to (Y-1), Y being the number of the at least first and second pair of taps, and the modulated signal have a phase shift of y * 180°/ Y for each next pair 'y'. - determining at least a first and a second pair of taps; and - driving each pair of taps to detect the reflected modulated signal during a predetermined number N of cycles of the modulated signal,
A detection system adapted to check the position of a pipeline in a bed of a body of water and extending along a predetermined route; the system comprising a device (3; 103), which is configured to be moved in a moving direction and along the predetermined route in the body of water and comprises a support (9; 109), which mainly extends transversely to the moving direction, a number of acoustic wave sources, which are mounted on the support (9; 109) and are configured to transmit acoustic waves through the body of water and the bed of the body of water, and a number of acoustic wave receivers, which are located along the support (9; 109) and are configured to receive reflected acoustic waves and emit reception signals related to the reflected acoustic waves; and a processing unit comprising an acquisition unit, which is configured to receive, from the outside, at least one datum selected within a group of known or expected data comprising: the known value of the cross-section of the pipeline, an expected value of the trenching height of the pipeline, the known shape of the pipeline, the expected bathymetric profile of the bed of the body of water, and an expected value of the position of the pipeline; the processing unit being configured to calculate a parameter related to the position of the pipeline in the bed of the body of water on the basis of the reception signals and of said at least one datum selected within the group of data, and to check if the parameter falls within certain ranges; wherein the number of receivers is equal to or greater than two; in particular the number of receivers is equal to or greater than three; wherein the receivers are distributed transversely to the moving direction; and comprising a mechanism to adjust the immersion depth of the support (9; 109) in the body of water, so as to place the support (9; 109) at a given estimated distance from the pipeline.
An injector configured to inject a solution containing biomolecules into an injection target and configured such that no injection is performed through a predetermined structure in a state, where the predetermined structure is inserted into the injection target, from an injector main body, the injector comprising: a storage unit in which a solution containing biomolecules is stored; and a nozzle part having an ejection port through which the pressurized solution containing biomolecules is able to flow and can be ejected into the injection target, wherein the injector is configured such that when a relationship between displacement x at a tip of the solution containing biomolecules in the injection target and velocity u(x) at the tip of the solution is fitted using a least squares method by a fitting function represented by Formula below, a damping coefficient k is at least 1.59: u x = u 0 exp − kx + u e in Formula, u 0 represents a velocity coefficient (m/s), k represents a damping coefficient (1/mm), and u e represents an asymptotic velocity (m/s). a storage unit in which a solution containing biomolecules is stored; and a nozzle part having an ejection port through which the pressurized solution containing biomolecules is able to flow and can be ejected into the injection target, wherein the injector is configured such that when a relationship between displacement x at a tip of the solution containing biomolecules in the injection target and velocity u(x) at the tip of the solution is fitted using a least squares method by a fitting function represented by Formula below, a damping coefficient k is at least 1.59: u x = u 0 exp − kx + u e in Formula, u 0 represents a velocity coefficient (m/s), k represents a damping coefficient (1/mm), and u e represents an asymptotic velocity (m/s).
Relay comprising a containment enclosure, at least one electromagnet, arranged within said containment enclosure and electrically powered, for varying its polarity, at least one lamellar spring (53a, 53b), having a first and a second end (53a', 53b', 53a", 53b"), said first end (53a', 53b') being fixed to said containment enclosure, at least one fixed electrical contact, fixed to said containment enclosure and at least one movable contact, arranged on said lamellar spring (53a, 53b) and in correspondence with said fixed electrical contact, said lamellar spring (53a, 53b) being able to assume a first operating position, in which said movable contact is not in contact with said fixed electrical contact, and a second operating position, in which said movable contact is in contact with said fixed electrical contact, said relay comprising a control group comprising a support element, pivoted about said containment enclosure, so as to be able to rotate around a first axis, and provided with at least one seat, in which said at least one lamellar spring (53a, 53b) is constrained, whereby the plane defined by electrical contacts (51, 52) is orthogonal to said first axis, so that, in case of variation of said polarity, said control group rotates with respect to said containment enclosure, said lamellar spring (53a, 53b) passing from said first position to said second operating position and vice versa, characterised by said support element having a housing, in which a magnetic circuit is arranged, capable of interacting with said electromagnet.
Method for providing information related to a location of a vehicle, wherein the information related to the location indicates, that the vehicle is a personal vehicle waiting for a passenger to get into or to get out of the vehicle, the method comprising, using a control module for: Determining an activation status of a warning function of the vehicle, wherein the warning function comprises an active state and an inactive state, and wherein the warning function being set to an active state indicates that the vehicle is waiting for a passenger to get into or to get out of the vehicle; Changing the activation status of the vehicle based on a user input of a user of the vehicle, wherein the user input is based on an activation of a hazard flasher of the vehicle; Determining the location of the vehicle; Determining, whether a passenger door of the vehicle is open using door sensors; and Transmitting, using a wireless communication module, the information related to the location of the vehicle to a plurality of vehicles if the warning function is set to active and if the passenger door of the vehicle is open and/or has been open within a predefined timespan, wherein, if the warning function is set to an inactive state, the information related to the location of the vehicle is not transmitted. Determining an activation status of a warning function of the vehicle, wherein the warning function comprises an active state and an inactive state, and wherein the warning function being set to an active state indicates that the vehicle is waiting for a passenger to get into or to get out of the vehicle; Changing the activation status of the vehicle based on a user input of a user of the vehicle, wherein the user input is based on an activation of a hazard flasher of the vehicle; Determining the location of the vehicle; Determining, whether a passenger door of the vehicle is open using door sensors; and Transmitting, using a wireless communication module, the information related to the location of the vehicle to a plurality of vehicles if the warning function is set to active and if the passenger door of the vehicle is open and/or has been open within a predefined timespan, wherein, if the warning function is set to an inactive state, the information related to the location of the vehicle is not transmitted.
Configuration server for configuring registrations of a client using at least one terminal with a multimedia service deployed on an IP network by a plurality of service elements, said configuration server comprising means for dispatching suitable configuration parameters to said client before their registration with one of said service elements, said server furthermore comprising means for assigning said client to a group of clients (G i) from among a plurality of groups of clients (G1 to GM) according to a first distribution, dependent at least on a processing capacity of said service element, means for calculating first parameters of temporal distribution (PT i) of the registrations intended for the clients of said group, said first parameters defining a first registration rate specific to said group (G i), and said dispatching means being able to dispatch to said at least one terminal (U k) of the client said first parameters of temporal distribution of registrations intended for said group, characterized in that said first parameters of temporal distribution of the registrations comprise a standby duration on completion of which a client having dispatched a request for reregistration to said service and belonging to said group (G i) can resend their request of the service, when they have not received any response.
An anchor assembly, comprising: a head member having a proximal end and a distal end, the head member defining a proximal opening at the proximal end, a distal opening at the distal end, a passageway extending from the proximal opening to the distal opening, a proximal portion having a first inner surface and defining a proximal chamber of the passageway, and a distal portion having a second inner surface defining a distal chamber of the passageway, the proximal portion defining a lateral opening continuous with the proximal opening and the second inner surface defining a channel having a proximal portion having a first depth and a distal portion having a second depth that is less than the first depth; a retaining member disposed within the distal portion of the channel; a compression member exerting a force to maintain the retaining member within the distal portion of the channel; and an anchor having a head and a shank, the head partially disposed within the distal chamber of the passageway; a sleeve partially disposed within the distal chamber of the passageway; characterized in that the compression member is disposed between the distal end of the head member and a portion of the sleeve. a head member having a proximal end and a distal end, the head member defining a proximal opening at the proximal end, a distal opening at the distal end, a passageway extending from the proximal opening to the distal opening, a proximal portion having a first inner surface and defining a proximal chamber of the passageway, and a distal portion having a second inner surface defining a distal chamber of the passageway, the proximal portion defining a lateral opening continuous with the proximal opening and the second inner surface defining a channel having a proximal portion having a first depth and a distal portion having a second depth that is less than the first depth; a retaining member disposed within the distal portion of the channel; a compression member exerting a force to maintain the retaining member within the distal portion of the channel; and an anchor having a head and a shank, the head partially disposed within the distal chamber of the passageway; a sleeve partially disposed within the distal chamber of the passageway; characterized in that the compression member is disposed between the distal end of the head member and a portion of the sleeve.