mhurhangee/patent-ind-claim-en huggingface dataset:
Method for authenticating and/or identifying a security article comprising a first image , comprising the steps consisting in: - at least partially superimposing the first image of the article with a second image produced by an electronic imager , the security article comprising in particular an integrated microcircuit able to communicate with the electronic imager so that the latter produces said second image , the electronic imager comprising in particular a screen the pixels of which are used at least in part to form the second image in the form of a revelation raster , - performing a relative movement between the first and second images in order to make it possible to observe authentication and/or identification information of the security article during the relative movement between the first and second images , the authentication and/or identification information being inaccessible other than during the relative movement of the first and second images, a movement or animation effect of interleaved images being observed during the relative movement between the first and second images. - at least partially superimposing the first image of the article with a second image produced by an electronic imager , the security article comprising in particular an integrated microcircuit able to communicate with the electronic imager so that the latter produces said second image , the electronic imager comprising in particular a screen the pixels of which are used at least in part to form the second image in the form of a revelation raster , - performing a relative movement between the first and second images in order to make it possible to observe authentication and/or identification information of the security article during the relative movement between the first and second images , the authentication and/or identification information being inaccessible other than during the relative movement of the first and second images,
A method for handling data in a distributed computing environment comprising at least one server and a plurality of clients comprising at least a first client and a second client , the method comprising, at the first client : sending a first request for data to the second client ; receiving a first response from the second client as a response to the first request; determining a probability of validity of the data requested by the first request and available from the second client based on a validity indication included in the first response indicating a probability that the data requested from the second client is invalid comprising: estimating a time of receipt of the data from the second client based on a size of the requested data included in the first response and a given bandwidth of a connection to the second client , and determining the probability of validity of the data at the estimated time of receipt; and in response to determining that the data requested by the first request and available from the second client is likely invalid, sending a second request to the server to obtain the data from the server ; receiving the data from the server in a second response to the second request, wherein the second response includes a validity indication indicating a probability that the data requested from the server is invalid, the method further comprising: storing the data received from the server associated with the validity indication included in the second response . sending a first request for data to the second client ; receiving a first response from the second client as a response to the first request; determining a probability of validity of the data requested by the first request and available from the second client based on a validity indication included in the first response indicating a probability that the data requested from the second client is invalid comprising: estimating a time of receipt of the data from the second client based on a size of the requested data included in the first response and a given bandwidth of a connection to the second client , and determining the probability of validity of the data at the estimated time of receipt; and estimating a time of receipt of the data from the second client based on a size of the requested data included in the first response and a given bandwidth of a connection to the second client , and determining the probability of validity of the data at the estimated time of receipt; and in response to determining that the data requested by the first request and available from the second client is likely invalid, sending a second request to the server to obtain the data from the server ; receiving the data from the server in a second response to the second request, wherein the second response includes a validity indication indicating a probability that the data requested from the server is invalid, the method further comprising: storing the data received from the server associated with the validity indication included in the second response .
. A method of encoding an input audio content having one or more audio components, wherein each audio component is associated with a spatial location, the method including the steps of: rendering said input audio content into an audio playback presentation (Z), said audio playback presentation intended for reproduction on an audio reproduction system; determining a set of M binaural representations (Y m ) by applying M sets of transfer functions to the input audio content , wherein the M sets of transfer functions are based on a collection of individual binaural playback profiles; computing M sets of transform parameters (W m ) enabling a transform from said audio playback presentation to M approximations of said M binaural representations, wherein said M sets of transform parameters are determined by minimizing a difference between said M binaural representations and said M approximations, M>1; and encoding said audio playback presentation and said M sets of transform parameters for transmission to a decoder . rendering said input audio content into an audio playback presentation (Z), said audio playback presentation intended for reproduction on an audio reproduction system; determining a set of M binaural representations (Y m ) by applying M sets of transfer functions to the input audio content , wherein the M sets of transfer functions are based on a collection of individual binaural playback profiles; computing M sets of transform parameters (W m ) enabling a transform from said audio playback presentation to M approximations of said M binaural representations, wherein said M sets of transform parameters are determined by minimizing a difference between said M binaural representations and said M approximations, M>1; and encoding said audio playback presentation and said M sets of transform parameters for transmission to a decoder .
Device for storing and handling Petri dishes , wherein the Petri dishes have a base and a lid , wherein a base wall is arranged on a circumference of the base , comprising a storage device for storing the Petri dishes with the lid downwards, a gripper by means of which one Petri dish at a time without the lid can be grasped laterally on the base wall , characterized by an inspection device for the automatic inspection of Petri dishes without a lid and a transfer device for transferring the Petri dishes between the storage device and the inspection device , wherein the transfer device has at least one transfer station for holding a Petri dish with the lid downwards, from which one Petri dish at a time can be grasped without the lid by the gripper and wherein the transfer device has a turning drive , by means of which the gripper with a held base of a Petri dish can be turned over vertically above the lid lying in the transfer station.
A hollow fiber membrane module comprising: a plurality of hollow fiber membranes ; a binding portion binding the plurality of hollow fiber membranes at one end portions thereof; a cap having an internal space that communicates with each of the plurality of hollow fiber membranes , the cap being integrated with the binding portion , the hollow fiber membrane module further comprises a housing that houses the plurality of hollow fiber membranes and the binding portion , and that has one end portion to which the cap is attached, a unit including the plurality of hollow fiber membranes , the binding portion , and the cap which is detachable from the housing , and the unit is suitable to be attached to the housing while integration of the binding portion and the cap is maintained, and characterized in that the cap comprises a sleeve that extends along a longitudinal direction of the hollow fiber membranes , and that surrounds the binding portion in a circumferential direction, and in that the sleeve is joined to the binding portion, and the sleeve is wedge-shaped on a cross-section parallel to the longitudinal direction of the hollow fiber membranes . a plurality of hollow fiber membranes ; a binding portion binding the plurality of hollow fiber membranes at one end portions thereof; a cap having an internal space that communicates with each of the plurality of hollow fiber membranes , the cap being integrated with the binding portion , the hollow fiber membrane module further comprises a housing that houses the plurality of hollow fiber membranes and the binding portion , and that has one end portion to which the cap is attached, a unit including the plurality of hollow fiber membranes , the binding portion , and the cap which is detachable from the housing , and the unit is suitable to be attached to the housing while integration of the binding portion and the cap is maintained, and characterized in that the cap comprises a sleeve that extends along a longitudinal direction of the hollow fiber membranes , and that surrounds the binding portion in a circumferential direction, and in that the sleeve is joined to the binding portion, and the sleeve is wedge-shaped on a cross-section parallel to the longitudinal direction of the hollow fiber membranes .
A method of manufacturing an impregnated fibrous material comprising a fibrous material made of continuous fibers and at least one thermoplastic polymer matrix, characterized in that said impregnated fibrous material is produced as a single unidirectional ribbon or a plurality of unidirectional parallel ribbons and characterized in that said method comprises, a step of pre-impregnating said fibrous material while it is in the form of a roving or several parallel rovings with said thermoplastic material and at least one step of heating the thermoplastic matrix for melting, or maintaining in the molten state, said thermoplastic polymer after pre-impregnation, said at least one heating step being done using at least one non-heating and non-heat-conducting supporting part (E) and at least one heating system, with the exception of a heating calender, said roving(s) being in contact with part or all of the surface of said at least one supporting part (E) and scrolling partially or wholly on the surface of said at least one supporting part (E) at the heating system, excluding any electrostatic method with deliberate charge, said at least one heating system being selected from microwave heating, laser heating and High Frequency (HF) heating and the porosity level in said preimpregnated fibrous material being less than 10 %, in particular less than 5 %, particularly less than 2 %.
A pump assembly comprising - a rotor axle extending along a rotor axis (R), - an impeller fixed to the rotor axle , - a pump housing accommodating the impeller , - a drive motor comprising a stator and a rotor , wherein the rotor is fixed to the rotor axle for driving the impeller , - a rotor can accommodating the rotor , wherein the rotor can comprises a rotor can flange , and - an electronics housing , wherein the electronics housing comprises a cap comprising a first material forming a front face of the cap , wherein the first material of the cap is at least partially overmoulded with a second material at an inner side of the cap , wherein the second material is more heat-conductive than the first material , characterised in that the cap comprises a radially outer wall comprising the first material and extending essentially perpendicular to the front face , wherein an inner side of the radially outer wall is at least partially overmoulded with the second material . - a rotor axle extending along a rotor axis (R), - an impeller fixed to the rotor axle , - a pump housing accommodating the impeller , - a drive motor comprising a stator and a rotor , wherein the rotor is fixed to the rotor axle for driving the impeller , - a rotor can accommodating the rotor , wherein the rotor can comprises a rotor can flange , and - an electronics housing ,
Direct plug-in connector for making electrical contact with printed circuit boards, comprising a housing and at least one contact , which is connected to the housing , for insertion into a first passage opening of a printed circuit board , which first passage opening is electrically conductive on the inner wall, having at least one latching device for securing the housing on the printed circuit board , wherein the latching device has at least one elastically resilient latching arm which is integrally connected to the housing and has a latching projection in the region of its free end, wherein the latching arm and the housing are separated by means of an intermediate space , and wherein the housing has at least one further positioning projection which is rigidly and integrally connected to the housing and protrudes beyond the supporting face of the housing , characterized in that the housing is of two-part design, wherein a first housing part is provided with the at least one latching arm and a second housing part is provided with the contact , in that the first housing part is designed in general in a u-shape with two limbs and a base connecting the two limbs, and the second housing part is accommodated between the limbs of the first housing part, and in that the first housing part engages over the second housing part .
A construction machine having an undercarriage and a superstructure rotatably mounted on the undercarriage about a vertical axis (Z), wherein - An engine with hydraulic and current supply is provided in the superstructure , - In the undercarriage there is provided a track travelling gear rotationally driven via two track drive hydraulic motors acted upon by the hydraulic supply , - At the undercarriage , an hydraulically raisable and lowerable earth levelling bucket is arranged at at least one end face of the undercarriage , - An hydraulic through drive with three hydraulic line pairs (41 to 43) is provided, wherein the three hydraulic line pairs (41, 42 and 43) are: - A first and second pair for the two track hydraulic motors of the track travelling gear and - A third hydraulic line pair for an earth leveling bucket hydraulic cylinder of the hydraulically raisable and lowerable earth levelling bucket , characterised in that - The hydraulic through drive has at least one fourth hydraulic line pair , attached to the hydraulic supply , for a further hydraulic function, which at the undercarriage and close to the earth levelling bucket runs to an hydraulic quick coupling and - A quick change device is provided at the earth levelling bucket , so that hydraulically drivable attachments are attachable to the quick change device at the earth levelling bucket of the undercarriage . - An engine with hydraulic and current supply is provided in the superstructure , - In the undercarriage there is provided a track travelling gear rotationally driven via two track drive hydraulic motors acted upon by the hydraulic supply , - At the undercarriage , an hydraulically raisable and lowerable earth levelling bucket is arranged at at least one end face of the undercarriage , - An hydraulic through drive with three hydraulic line pairs (41 to 43) is provided, wherein the three hydraulic line pairs (41, 42 and 43) are: - A first and second pair for the two track hydraulic motors of the track travelling gear and - A third hydraulic line pair for an earth leveling bucket hydraulic cylinder of the hydraulically raisable and lowerable earth levelling bucket , characterised in that - A first and second pair for the two track hydraulic motors of the track travelling gear and - A third hydraulic line pair for an earth leveling bucket hydraulic cylinder of the hydraulically raisable and lowerable earth levelling bucket , - The hydraulic through drive has at least one fourth hydraulic line pair , attached to the hydraulic supply , for a further hydraulic function, which at the undercarriage and close to the earth levelling bucket runs to an hydraulic quick coupling and - A quick change device is provided at the earth levelling bucket ,
A segmented armature assembly (1, W) for a wind turbine generator , comprising - an annular armature comprising at least six armature segments separated by gaps (G); - winding sets (s1, s2) of two multi-phase winding systems (S1, S2), wherein each winding set (s1, s2) comprises one winding (W) for each phase of a specific multi-phase winding system (S1, S2); characterized by a first winding distribution (D1), wherein each armature segment carries winding sets (s1, s2) of one winding system only such that any one stator segment is flanked by two armature segments , each carrying only winding sets (s1, s2) of the other winding system and wherein the winding sets (s1, s2) on either side of a gap (G) are a mirror image of the winding sets (s1, s2) on either side of the other two closest gaps (G); or characterized by a second winding distribution (D2), wherein each armature segment carries an alternating arrangement of an even number of winding sets (s1, s2), and wherein the arrangement of winding sets (S1, S2) carried by one armature segment is a mirror image of the arrangement of winding sets (S1, S2) carried by the adjacent armature segments . - an annular armature comprising at least six armature segments separated by gaps (G); - winding sets (s1, s2) of two multi-phase winding systems (S1, S2), wherein each winding set (s1, s2) comprises one winding (W) for each phase of a specific multi-phase winding system (S1, S2);
An EGR estimation method for an internal combustion engine that estimates an EGR rate in an intake and exhaust system of an internal combustion engine , the intake and exhaust system of an internal combustion engine which is including: an intake system including an air cleaner and an intake passage that connects the air cleaner and the internal combustion engine , an exhaust system including an exhaust passage that is connected to the internal combustion engine , and a supercharger that is provided in the intake passage and the exhaust passage , the intake and exhaust system being provided with an EGR device including an EGR passage that connects a position upstream of the supercharger in the intake passage and a position downstream of the supercharger in the exhaust passage and an EGR valve that is provided in the EGR passage , and the intake system including an intake bypass passage that connects an upstream pressure portion and a downstream pressure portion of the supercharger in the intake system and a recirculation valve that is provided in the intake bypass passage , wherein EGR gas is flowing through the intake bypass passage back to the air cleaner side after having opened the recirculation valve during supercharging and closed the EGR valve ; the EGR estimation method being characterised in that it comprises the following steps: calculating the passing amount of gas through the recirculation valve , calculates a blowback amount integrated value (QS) by integrating said passing amount of gas, determining that the blowback occurs when the blowback amount integrated value (QS) becomes a negative value, estimating whether the volume of the intake passage upstream of the supercharger has been re-inhaled or not based on the blowback amount integrated value (QS), when the blowback has occurred, estimating the EGR rate at a position upstream of the supercharger in the intake passage as being equal to the EGR rate in the intake passage before the blowback occurs until the volume of the intake passage upstream of the supercharger has been reinhaled. calculating the passing amount of gas through the recirculation valve , calculates a blowback amount integrated value (QS) by integrating said passing amount of gas, determining that the blowback occurs when the blowback amount integrated value (QS) becomes a negative value, estimating whether the volume of the intake passage upstream of the supercharger has been re-inhaled or not based on the blowback amount integrated value (QS),
A method of forming a tunnel structure which, once formed, includes a new transport route for use instead of, or in addition to, an existing transport route , said method comprising the steps of forming at least two spaced apart access tunnels , said access tunnels spaced apart along an axis perpendicular to the longitudinal axes of the said access tunnels, forming at least one guide surface along each of the access tunnels, introducing a plurality of units from at least one end of the said access tunnels and successively sliding the said units along the said at least one guide surface of said access tunnels, said units successively introduced and moved along a linear path as the material in which the tunnel structure is to be formed is excavated in advance of the leading one of the said units with respect to the direction of movement of the units, until the required length of tunnel structure is formed and the path along which the tunnel structure is formed is located under said existing transport route and characterised in that a first access ramp is formed at a first end of the said tunnel structure and a second access ramp is formed at a second end of the said tunnel structure to link the respective ends of said new transport route formed in the said tunnel structure to the existing transport route and allow the passage of trains or vehicles from the existing transport route along the said new transport route through the tunnel structure once formed and said tunnel structure lies at a depth under a surface on which the existing transport route is formed in the range of 2-10 metres