mhurhangee/patent-ind-claim-en huggingface dataset:
A method of imaging a sample , the method comprising: illuminating a plurality of points of the sample with a first focused fringe pattern generated at each of the plurality of points by interference of light beams (213', 213") emitted through a microscope objective , wherein, for the first focused fringe pattern, first separate illumination areas of the microscope objective have a first rotational axis and the light beams (213', 213") are shifted in phase relative to one another by a first phase; the method further comprising illuminating the plurality of points with at least one different focused fringe pattern, wherein the light beams (213', 213") are shifted in phase relative to one another by a different phase, relative to the first phase, and wherein either (i) same separate illumination areas of the microscope objective have a same rotational axis that is not angled relative to the first rotational axis , or (ii) different separate illumination areas of the microscope have a different rotational axis that is angled relative to the first rotational axis ; wherein a rotational axis of separate illumination areas is defined as an axis extending between and not intersecting the separate illumination areas and coinciding with an axis of symmetry about which illumination areas are mirror images of one another; characterized in that one or both of said separate illumination areas are non-circular illuminating a plurality of points of the sample with a first focused fringe pattern generated at each of the plurality of points by interference of light beams (213', 213") emitted through a microscope objective , wherein, for the first focused fringe pattern, first separate illumination areas of the microscope objective have a first rotational axis and the light beams (213', 213") are shifted in phase relative to one another by a first phase; the method further comprising illuminating the plurality of points with at least one different focused fringe pattern, wherein the light beams (213', 213") are shifted in phase relative to one another by a different phase, relative to the first phase, and wherein either (i) same separate illumination areas of the microscope objective have a same rotational axis that is not angled relative to the first rotational axis , or (ii) different separate illumination areas of the microscope have a different rotational axis that is angled relative to the first rotational axis ; wherein a rotational axis of separate illumination areas is defined as an axis extending between and not intersecting the separate illumination areas and coinciding with an axis of symmetry about which illumination areas are mirror images of one another; characterized in that one or both of said separate illumination areas are non-circular
A network entity of a cellular telecommunications network having a processing unit that is configured: - to define a spatial zone by a set of geographical coordinates in the cellular telecommunications network; - to receive route indication information from at least one mobile terminal on a vehicle or being part of a vehicle integrated system inside the spatial zone (1. 1'); - to generate a trajectory for the vehicle based on the received route indication information; - to calculate a danger situation probability for the vehicle based on the generated trajectory; and - to send a notification message to the mobile terminal if the danger situation probability exceeds a predefined threshold probability. - to define a spatial zone by a set of geographical coordinates in the cellular telecommunications network; - to receive route indication information from at least one mobile terminal on a vehicle or being part of a vehicle integrated system inside the spatial zone (1. 1'); - to generate a trajectory for the vehicle based on the received route indication information; - to calculate a danger situation probability for the vehicle based on the generated trajectory; and - to send a notification message to the mobile terminal if the danger situation probability exceeds a predefined threshold probability.
A method of performing active noise cancellation using an active noise cancellation system of a personal listening device, wherein the active noise cancellation system comprises a first error microphone at an error reference point, the method comprising: creating a plurality of leakage profiles adapted for a corresponding leakage condition relating to a positioning and/or fit of the personal listening device with respect to a user's anatomy, wherein the leakage profiles are created by placing the personal listening device comprising the active noise cancellation system on a head and torso simulator having a second error microphone at an ear drum location and tuning the active noise cancellation system based on an error signal produced by the second error microphone for different leakage conditions; processing a reference signal representing ambient noise through feedforward active noise cancellation path to adaptively generate an anti-noise signal to cancel the ambient noise, wherein the processing comprises applying an adaptive gain to the anti-noise signal wherein the gain is adapted to one or more leakage conditions; and determining a leakage profile based at least in part on the adaptive gain by selecting the leakage profile from the plurality of leakage profiles, wherein processing the reference signal further comprises applying an adaptive filter to generate the anti-noise signal corresponding to the reference signal in accordance with the determined leakage profile. creating a plurality of leakage profiles adapted for a corresponding leakage condition relating to a positioning and/or fit of the personal listening device with respect to a user's anatomy, wherein the leakage profiles are created by placing the personal listening device comprising the active noise cancellation system on a head and torso simulator having a second error microphone at an ear drum location and tuning the active noise cancellation system based on an error signal produced by the second error microphone for different leakage conditions; processing a reference signal representing ambient noise through feedforward active noise cancellation path to adaptively generate an anti-noise signal to cancel the ambient noise, wherein the processing comprises applying an adaptive gain to the anti-noise signal wherein the gain is adapted to one or more leakage conditions; and determining a leakage profile based at least in part on the adaptive gain by selecting the leakage profile from the plurality of leakage profiles, wherein processing the reference signal further comprises applying an adaptive filter to generate the anti-noise signal corresponding to the reference signal in accordance with the determined leakage profile.
Multi-layered tube comprising a core layer , a covering layer and an intermediate layer , which is arranged between the core layer and the covering layer , wherein the covering layer forms an encircling, strip-like first protective region which extends from one tube end up to a first axial end , the latter being at a distance from the tube end, comprises a first predetermined breaking segment extending from the tube end, and is intended to protect the core layer and the intermediate layer and to be peeled off prior to a connection of the tube to a further tube of a similar type, characterized in that the first protective region is delimited at the first axial end by an encircling first predetermined breaking point , the first predetermined breaking segment extends from the tube end up to at least almost the first axial end , the covering layer forms an encircling, strip-like second protective region which extends from the first axial end up to a second axial end , which is delimited at the second axial end by an encircling second predetermined breaking point , and which is intended to protect the intermediate layer and to be peeled off for a connection of the tube to the further tube, wherein the rim of the second protective region that is uncovered by way of the peeling of the first protective region forms a detachment edge for the peeling of the intermediate layer .
Elastic joint , in particular for a motor vehicle, with a main axis (X) of axial orientation, comprising: - a cylindrical tubular external bushing coaxial to the main axis (X); - an internal bushing having a tubular wall delimited by a cylindrical internal face circumscribing a central orifice and by a cylindrical external face , the internal bushing being arranged concentrically within the external bushing ; - a ring of elastomer material which is inserted radially between the external bushing and the internal bushing ; - the internal bushing being perforated with at least one cavity passing axially through the thickness of its wall, the cavity extending circumferentially in a circular arc over an angular sector (αA, αB) defined around the main axis (X), the cavity being delimited radially by an internal partition and by an external partition ; - the internal partition being delimited radially by an external face , on the one hand, and by the internal face of the wall of the internal bushing , on the other hand, the external face of the internal partition having a width which is greater than or equal to the diameter of the central orifice ; characterized in that the internal partition comprises an axial rupture area of predetermined location having an axial opening or a rupture resistance substantially below that of the rest of said internal partition . - a cylindrical tubular external bushing coaxial to the main axis (X); - an internal bushing having a tubular wall delimited by a cylindrical internal face circumscribing a central orifice and by a cylindrical external face , the internal bushing being arranged concentrically within the external bushing ; - a ring of elastomer material which is inserted radially between the external bushing and the internal bushing ; - the internal bushing being perforated with at least one cavity passing axially through the thickness of its wall, the cavity extending circumferentially in a circular arc over an angular sector (αA, αB) defined around the main axis (X), the cavity being delimited radially by an internal partition and by an external partition ; - the internal partition being delimited radially by an external face , on the one hand, and by the internal face of the wall of the internal bushing , on the other hand, the external face of the internal partition having a width which is greater than or equal to the diameter of the central orifice ;
Actuator for an electromechanical door lock, comprising a motor , which drives a shaft , in and/or on which at least one coil spring is arranged, wherein the shaft has at least one driver engaging in an intermediate space between two adjacent turns of the coil spring , with the result that a rotation of the shaft axially displaces the coil spring , the coil spring acts on a slide such that an axial displacement of the coil spring preloads the slide at least in the direction corresponding to a displacement, wherein the motor has a drive shaft and the shaft is arranged in a non-coaxial manner with, in particular parallel to, and/or not in series and/or not in an aligned manner with the drive shaft , wherein the motor drives the shaft via an interposed gear mechanism , wherein the two ends of the coil spring are fixed in a freely axially displaceable, i.e. not stationary, manner, wherein the slide has a receptacle in the form of a slotted through-opening, through which the shaft projects in the assembled state, characterized in that the driver is in the form of at least one external thread, extending at least partially circumferentially around the shaft , on the shaft , the slide is in the form of a bridge-like slide with two lateral walls that are spanned in a bridge-like manner by a bridge portion.
A sample transporting device comprising: a first transport path for transporting a sample rack (L) holding a sample; a second transport path for transporting the sample rack (L), disposed parallel to the first transport path ; a rack moving mechanism for moving the sample rack from the first transport path to the second transport path ; characterised by : a guide member , movable in vertical directions, for allowing the sample rack (L) to move from the first transport path to the second transport path when at a predetermined position, and for preventing the sample rack (L) being transported on the first transport path or the second transport path from deviating from the transport path when the guide member is above the predetermined position; and a drive source for moving the guide member in vertical directions. a first transport path for transporting a sample rack (L) holding a sample; a second transport path for transporting the sample rack (L), disposed parallel to the first transport path ; a rack moving mechanism for moving the sample rack from the first transport path to the second transport path ; characterised by : a guide member , movable in vertical directions, for allowing the sample rack (L) to move from the first transport path to the second transport path when at a predetermined position, and for preventing the sample rack (L) being transported on the first transport path or the second transport path from deviating from the transport path when the guide member is above the predetermined position; and a drive source for moving the guide member in vertical directions. a guide member , movable in vertical directions, for allowing the sample rack (L) to move from the first transport path to the second transport path when at a predetermined position, and for preventing the sample rack (L) being transported on the first transport path or the second transport path from deviating from the transport path when the guide member is above the predetermined position; and a drive source for moving the guide member in vertical directions.
A method of integrating local application windows with a remote desktop, the method comprising: identifying a local window corresponding to an application executing on a local client device; creating, on the local client device by a virtual desktop receiver application executing on the local client device , a shadow window corresponding to the local window within confines of a remote desktop window, wherein the shadow window includes a replication of content from the local window ; receiving input via the shadow window ; and proxying the input to the local window . identifying a local window corresponding to an application executing on a local client device; creating, on the local client device by a virtual desktop receiver application executing on the local client device , a shadow window corresponding to the local window within confines of a remote desktop window, wherein the shadow window includes a replication of content from the local window ; receiving input via the shadow window ; and proxying the input to the local window .
Method for operating an electric power tool having an electric motor for unscrewing a screw element from a mating piece, wherein the electric power tool having a rotary element is operatively connected to the screw element, characterized in that in a first mode a check is performed as to whether the power of the electric motor exceeds a predetermined first power limit for a predetermined first minimum period of time, wherein after exceeding the first power limit for the first minimum period of time a second mode is adopted, wherein a progression with respect to time of the power is ascertained in the second mode for a predetermined second period of time, wherein a third mode is adopted if the power during the second period of time exceeds a second power limit and the power fluctuates with respect to time within a predetermined fluctuation value range, wherein in dependence upon the ascertained power in the second mode a third power limit is determined, wherein a change occurs from the third mode into a fourth mode if the power drops below the third power limit within a predetermined third period of time, wherein in the fourth mode the power of the electric motor is reduced by at least 30%.
A battery system comprising: a nickel hydride battery ; and an electronic control unit , characterized in that the electronic control unit is configured to: store data indicating a corresponding relationship between an elapsed time (TIME) from start of use of the nickel hydride battery and a memory quantity (M), the data being data determined in a classified manner individually for each of conditions of use (P, Q, R) that are defined in such a manner as to include an open circuit voltage (OCV) of the nickel hydride battery and a temperature (Tb) of the nickel hydride battery , sequentially calculate, with reference to the data, the memory quantity (Mp, M Q , M R ) within a time when classification of the conditions of use does not change, the memory quantity being a quantity indicating an amount of change in voltage resulting from a memory effect of the nickel hydride battery , and estimate a current memory quantity of the nickel hydride battery by integrating, which is adding, the sequentially calculated memory quantities. a nickel hydride battery ; and an electronic control unit , characterized in that the electronic control unit is configured to: store data indicating a corresponding relationship between an elapsed time (TIME) from start of use of the nickel hydride battery and a memory quantity (M), the data being data determined in a classified manner individually for each of conditions of use (P, Q, R) that are defined in such a manner as to include an open circuit voltage (OCV) of the nickel hydride battery and a temperature (Tb) of the nickel hydride battery , sequentially calculate, with reference to the data, the memory quantity (Mp, M Q , M R ) within a time when classification of the conditions of use does not change, the memory quantity being a quantity indicating an amount of change in voltage resulting from a memory effect of the nickel hydride battery , and estimate a current memory quantity of the nickel hydride battery by integrating, which is adding, the sequentially calculated memory quantities. store data indicating a corresponding relationship between an elapsed time (TIME) from start of use of the nickel hydride battery and a memory quantity (M), the data being data determined in a classified manner individually for each of conditions of use (P, Q, R) that are defined in such a manner as to include an open circuit voltage (OCV) of the nickel hydride battery and a temperature (Tb) of the nickel hydride battery , sequentially calculate, with reference to the data, the memory quantity (Mp, M Q , M R ) within a time when classification of the conditions of use does not change, the memory quantity being a quantity indicating an amount of change in voltage resulting from a memory effect of the nickel hydride battery , and estimate a current memory quantity of the nickel hydride battery by integrating, which is adding, the sequentially calculated memory quantities.
A compound of General Formula I, wherein: R 1 is C 1 -C 8 alkyl, aryl or heteroaryl; and H 2 N-R 2 is basic amino acid or aminoguanidine. R 1 is C 1 -C 8 alkyl, aryl or heteroaryl; and H 2 N-R 2 is basic amino acid or aminoguanidine.
A method for the anti-corrosion treatment of components made of aluminum, comprising a pretreatment stage and subsequent coating, in which method, in the pretreatment stage, the component is first brought into contact with an aqueous phosphate-free sulfuric acid pickling solution which has a pH of from 1 to 2.5, a free acid content of at least 5 points and contains at least one water-soluble compound of the element Ti, a source of fluoride ions and at least one polybasic α-hydroxycarboxylic acid, and is subsequently brought into contact with an aqueous conversion treatment solution which has a pH of from 1 to 3.5 and contains at least one water-soluble compound of the elements Zr and/or Ti.
A method for producing a component having an internal passage with an interior surface thereof configured and adapted to contact a hydrocarbon fluid, the method comprising: producing the component and the internal passage thereof and the interior surface thereof using an additive manufacturing process; wherein at least a portion of the interior surface on which a coating system is deposited has a surface roughness from about 6.4 micrometers Ra to about 19 micrometers Ra; and performing a vapor deposition process that comprises flowing a first precursor through the internal passage to deposit a conformal interior layer directly on the interior surface and flowing a second precursor through the internal passage so as to deposit a conformal outermost layer overlying the interior layer , the interior layer and the outermost layer defining a conformal anti-coking coating system on the interior surface and the outermost layer defining an outermost surface of the anti-coking coating system , wherein the outermost surface of the anti-coking coating system defined by the outermost layer has a surface roughness from about 6.4 to about 19 micrometers Ra. producing the component and the internal passage thereof and the interior surface thereof using an additive manufacturing process; wherein at least a portion of the interior surface on which a coating system is deposited has a surface roughness from about 6.4 micrometers Ra to about 19 micrometers Ra; and performing a vapor deposition process that comprises flowing a first precursor through the internal passage to deposit a conformal interior layer directly on the interior surface and flowing a second precursor through the internal passage so as to deposit a conformal outermost layer overlying the interior layer , the interior layer and the outermost layer defining a conformal anti-coking coating system on the interior surface and the outermost layer defining an outermost surface of the anti-coking coating system , wherein the outermost surface of the anti-coking coating system defined by the outermost layer has a surface roughness from about 6.4 to about 19 micrometers Ra.
A ball joint assembly, comprising: a housing with an inner wall which has a constant diameter and surrounds an inner bore that extends along a central axis (A);a ball stud with a ball portion which has a semi-spherically curved exterior surface, received in said inner bore of said housing and with a shank portion projecting out of said inner bore through an open end of said housing, wherein said ball portion is in contact or near-contact with said inner wall; and wherein said contact or near-contact between said ball portion and said inner wall of said ball housing is a clearance fit; first and second preload members disposed in said inner bore on opposite axial sides of said ball portion and in contact with said ball portion; said preload members being of an elastomeric material; and at least one of said preload members being compressed to urge said ball portion to a central location. a housing with an inner wall which has a constant diameter and surrounds an inner bore that extends along a central axis (A);a ball stud with a ball portion which has a semi-spherically curved exterior surface, received in said inner bore of said housing and with a shank portion projecting out of said inner bore through an open end of said housing, wherein said ball portion is in contact or near-contact with said inner wall; and wherein said contact or near-contact between said ball portion and said inner wall of said ball housing is a clearance fit; first and second preload members disposed in said inner bore on opposite axial sides of said ball portion and in contact with said ball portion; said preload members being of an elastomeric material; and at least one of said preload members being compressed to urge said ball portion to a central location.