mhurhangee/patent-ind-claim-en huggingface dataset:
Method for authenticating a reader (R) by means of a radio tag (T), comprising the following steps, which are implemented by the tag: - a step (E21-6) of receiving, from the reader, encrypted information (z j ) and a datum allowing determination of an identification index (j) of an authentication coupon (t j ) of the reader, said encrypted information having been calculated by the reader by applying a reversible operation (REV) to the authentication coupon of the reader associated with the index and to information comprising a redundancy value (padd), - an operation (E21-7) of calculating a current authentication coupon of the reader (t j ') on the basis of the index (j) determined from the received datum, - an operation (E21-8) of decrypting the received encrypted information by means of the reversible operation, applied to the calculated current authentication coupon and to the received encrypted information, - an operation (E21-9) of checking the decrypted information intended to verify that the current coupon calculated by the tag corresponds to the authentication coupon used by the reader to encrypt the redundancy value. - a step (E21-6) of receiving, from the reader, encrypted information (z j ) and a datum allowing determination of an identification index (j) of an authentication coupon (t j ) of the reader, said encrypted information having been calculated by the reader by applying a reversible operation (REV) to the authentication coupon of the reader associated with the index and to information comprising a redundancy value (padd), - an operation (E21-7) of calculating a current authentication coupon of the reader (t j ') on the basis of the index (j) determined from the received datum, - an operation (E21-8) of decrypting the received encrypted information by means of the reversible operation, applied to the calculated current authentication coupon and to the received encrypted information, - an operation (E21-9) of checking the decrypted information intended to verify that the current coupon calculated by the tag corresponds to the authentication coupon used by the reader to encrypt the redundancy value.
Assembly for a motor vehicle of a first element constituting a fan nozzle with a second element constituting an air guide performed by assembling an elongate thin lip belonging to the second element in an elongate narrow slot formed by the three sides of an elongate flat plate fixed in parallel to a flat wall of the first element , characterized in that at least one element forming a guide (11-15) is secured to a long side of said elongate flat plate forming an edge of the slot , said element forming a guide (11-15) comprising a sliding surface (11a-15a) extending in the continuation of said elongate flat plate and diverging from the flat wall away from the first element , said at least one element forming a guide (11-15) being designed to cooperate with the lip so that the insertion of the lip into the slot begins with the sliding of the lip on the sliding surface (11a-15a) and then continues as the lip advances, with the progressive insertion of the lip into the slot .
A method for executing or initiating the installation of an application in a security element (20; 20′′′) of a portable end device , comprising the steps of: - receiving (S3; T1) an installation job by an installation device (100; 100') for installing the application on a security element (20; 20′′′); - processing (S4; T2, T3, T4, T5) the installation job by the installation device (100; 100'); characterized in that the installation device (100; 100') receives the installation job from the security element (20; 20′′′) and interacts in dependence on required compiler and linker functionalities with a further installation device (100") in the step of processing (T2, T3, T4, T5) the installation job, by the installation device relaying (T4) the installation job in dependence on required compiler and linker functionalities to the further installation device (100") in the processing step (T2, T3, T3, T5), said further installation device producing a corresponding machine code relating to the application that is adapted to the security element (20; 20′′′) and installs it in the security element. - receiving (S3; T1) an installation job by an installation device (100; 100') for installing the application on a security element (20; 20′′′); - processing (S4; T2, T3, T4, T5) the installation job by the installation device (100; 100'); the installation device (100; 100') receives the installation job from the security element (20; 20′′′) and interacts in dependence on required compiler and linker functionalities with a further installation device (100") in the step of processing (T2, T3, T4, T5) the installation job, by the installation device relaying (T4) the installation job in dependence on required compiler and linker functionalities to the further installation device (100") in the processing step (T2, T3, T3, T5), said further installation device producing a corresponding machine code relating to the application that is adapted to the security element (20; 20′′′) and installs it in the security element.
A power receiving apparatus , comprising: a first receiving coil at a first location on a cart ; a second receiving coil at a second location different from the first location on the cart ; a receiving circuit configured to generate DC power from power received by the first receiving coil and the second receiving coil ; a switching circuit configured to selectively connect one of the first receiving coil or the second receiving coil to the receiving circuit; and a shorting circuit configured to disable the one of the first receiving coil and the second receiving coil not connected to the receiving circuit by the switching circuit; characterized in that the first location on the cart is adjacent to a first caster of the cart and substantially perpendicular to the floor surface, and the second location is adjacent to a second caster of the cart and substantially perpendicular to the floor surface, the first and second casters being at back side portion of the cart . a first receiving coil at a first location on a cart ; a second receiving coil at a second location different from the first location on the cart ; a receiving circuit configured to generate DC power from power received by the first receiving coil and the second receiving coil ; a switching circuit configured to selectively connect one of the first receiving coil or the second receiving coil to the receiving circuit; and a shorting circuit configured to disable the one of the first receiving coil and the second receiving coil not connected to the receiving circuit by the switching circuit; characterized in that the first location on the cart is adjacent to a first caster of the cart and substantially perpendicular to the floor surface, and the second location is adjacent to a second caster of the cart and substantially perpendicular to the floor surface, the first and second casters being at back side portion of the cart .
Sensor device for the capacitive detection of approaches and/or touches by a user , wherein the sensor device comprises several electrodes which are galvanically disconnected and spaced apart from each other and arranged in several layers one above the other, wherein the electrodes at least partially overlap in a direction perpendicular to the layers, wherein the electrodes are coupled to at least one control and evaluation circuit which controls the electrodes in successive time periods in such a way as to perform alternating functions, so that the electrodes form a capacitive sensor arrangement with time-varying electrode configuration, characterized in that , the control and evaluation circuit is designed such that, in order to detect each actuation, it controls the electrodes immediately one after the other within 200ms with at least two different electrode configurations, at least one separate signal detection taking place for each electrode configuration, and the control and evaluation circuit evaluating whether these are all within mutually consistent limits and detecting an actuation as a function of all separate signal detections. wherein the sensor device comprises several electrodes which are galvanically disconnected and spaced apart from each other and arranged in several layers one above the other, wherein the electrodes at least partially overlap in a direction perpendicular to the layers, wherein the electrodes are coupled to at least one control and evaluation circuit which controls the electrodes in successive time periods in such a way as to perform alternating functions, so that the electrodes form a capacitive sensor arrangement with time-varying electrode configuration, characterized in that , the control and evaluation circuit is designed such that, in order to detect each actuation, it controls the electrodes immediately one after the other within 200ms with at least two different electrode configurations, at least one separate signal detection taking place for each electrode configuration, and the control and evaluation circuit evaluating whether these are all within mutually consistent limits and detecting an actuation as a function of all separate signal detections.
A venting device adapted to be inserted into a sealing part of a pouch of a secondary battery, the venting device comprising: a housing adapted to be inserted between both surfaces of the sealing part and sealed together with the sealing part ; a sheet which made of a metal and formed in the housing and through which a passage allowing the inside and outside of the pouch to communicate with each other passes; and a ball contacting or spaced apart from the sheet at an outlet-side of the passage to close or open the passage , wherein, in the sheet , an edge of an inner circumference of a surface of the outlet-side of the passage is chamfered or filleted, and the sheet comprises: a surface treatment layer formed on the chamfered or filleted one surface to face the ball ; and characterized in that the venting device further comprises: a polymer layer made of a polymer and fused to the surface treatment layer, wherein the polymer comprises an acid-treated polyolefin-based polymer, and a plate spring formed to surround the ball and the sheet and having elasticity to open and close the passage together with the ball according to an internal pressure of the pouch. a housing adapted to be inserted between both surfaces of the sealing part and sealed together with the sealing part ; a sheet which made of a metal and formed in the housing and through which a passage allowing the inside and outside of the pouch to communicate with each other passes; and a ball contacting or spaced apart from the sheet at an outlet-side of the passage to close or open the passage , wherein, in the sheet , an edge of an inner circumference of a surface of the outlet-side of the passage is chamfered or filleted, and the sheet comprises: a surface treatment layer formed on the chamfered or filleted one surface to face the ball ; and characterized in that the venting device further comprises: a polymer layer made of a polymer and fused to the surface treatment layer, wherein the polymer comprises an acid-treated polyolefin-based polymer, and a plate spring formed to surround the ball and the sheet and having elasticity to open and close the passage together with the ball according to an internal pressure of the pouch. a surface treatment layer formed on the chamfered or filleted one surface to face the ball ; and characterized in that the venting device further comprises: a polymer layer made of a polymer and fused to the surface treatment layer, wherein the polymer comprises an acid-treated polyolefin-based polymer, and a plate spring formed to surround the ball and the sheet and having elasticity to open and close the passage together with the ball according to an internal pressure of the pouch. a polymer layer made of a polymer and fused to the surface treatment layer, wherein the polymer comprises an acid-treated polyolefin-based polymer, and a plate spring formed to surround the ball and the sheet and having elasticity to open and close the passage together with the ball according to an internal pressure of the pouch.
Method for setting and regulating a fuel/air ratio in a heating system with a sensor for detecting a combustion characteristic variable , in particular an ionization current , which comprises the following steps: • generating a temporary temporal fluid-supply variation of a fluid-supply characteristic variable , which is intended to generate a temporal variation of the combustion characteristic variable , wherein the fluid-supply variation is selected in such a way that the temporal variation of the combustion characteristic variable has a double-peak structure that has at least a first peak , a first trough and a second peak , • ascertaining the first peak and the second peak of the temporal variation of the combustion characteristic variable , which is correlated with the temporal fluid-supply variation , • ascertaining an oxygen concentration in a manner dependent on a quotient of the first peak and the second peak , • ascertaining a first burner power parameter , • ascertaining a target combustion characteristic variable on the basis of the oxygen concentration and first burner power parameter , • regulating the heating system on the basis of the target combustion characteristic variable . • generating a temporary temporal fluid-supply variation of a fluid-supply characteristic variable , which is intended to generate a temporal variation of the combustion characteristic variable , wherein the fluid-supply variation is selected in such a way that the temporal variation of the combustion characteristic variable has a double-peak structure that has at least a first peak , a first trough and a second peak , • ascertaining the first peak and the second peak of the temporal variation of the combustion characteristic variable , which is correlated with the temporal fluid-supply variation , • ascertaining an oxygen concentration in a manner dependent on a quotient of the first peak and the second peak , • ascertaining a first burner power parameter , • ascertaining a target combustion characteristic variable on the basis of the oxygen concentration and first burner power parameter , • regulating the heating system on the basis of the target combustion characteristic variable .
An imaging device comprising: an imaging cell including a photoelectric converter (PC) including a first electrode , a second electrode , and a photoelectric conversion layer between the first electrode and the second electrode , the photoelectric converter (PC) being configured to generate a signal charge by photoelectric conversion, and a charge detection circuit (CD) connected to the first electrode , the charge detection circuit (CD) being configured to accumulate the signal charge in a charge accumulation region (FD) and to detect the accumulated signal charge; a signal line electrically coupled to the first electrode ; and a voltage supply circuit is configured to selectively supply a first voltage and a second voltage different from the first voltage to the signal line to reset a voltage of the first electrode immediately before accumulation of the signal charge in the accumulation region (FD). an imaging cell including a photoelectric converter (PC) including a first electrode , a second electrode , and a photoelectric conversion layer between the first electrode and the second electrode , the photoelectric converter (PC) being configured to generate a signal charge by photoelectric conversion, and a charge detection circuit (CD) connected to the first electrode , the charge detection circuit (CD) being configured to accumulate the signal charge in a charge accumulation region (FD) and to detect the accumulated signal charge; a signal line electrically coupled to the first electrode ; and a voltage supply circuit is configured to selectively supply a first voltage and a second voltage different from the first voltage to the signal line to reset a voltage of the first electrode immediately before accumulation of the signal charge in the accumulation region (FD).
An electrode plate, comprising a current collector , an electrode active material layer provided on at least one surface of the current collector , and an electrical connection member electrically connected to the current collector , wherein the electrode active material layer is provided at a zone referred to as a membrane zone (A) on a main body portion of the current collector , the electrical connection member and the current collector are welded and connected at a welding zone referred to as an adapting welding zone (C) at an edge of the current collector , and a transition zone is referred to as an extension zone (B, 512), wherein the transition zone is of the current collector between the membrane zone (A) and the adapting welding zone (C) and coated with no electrode active material layer ; the current collector comprises a support layer and a conductive layer provided on at least one surface of the support layer , single-sided thickness D2 of the conductive layer satisfies: 30 nm ≤ D2 ≤ 3 μm, and the support layer is a polymer material layer or a polymer composite material layer; characterized in that the electrode plate further comprises a thermally conductive coating layer , and the thermally conductive coating layer covers at least a part of the electrical connection member in the adapting welding zone (C); and viewed in a width direction of a coated surface of the electrode plate, the electrode active material layer based on compacted density comprises 2n + 1 zones, and compacted density of a middle zone is greater than compacted density of zones on both sides, wherein n = 1, 2, or 3 and the width direction is a direction perpendicular to a coating direction. the electrode active material layer is provided at a zone referred to as a membrane zone (A) on a main body portion of the current collector , the electrical connection member and the current collector are welded and connected at a welding zone referred to as an adapting welding zone (C) at an edge of the current collector , and a transition zone is referred to as an extension zone (B, 512), wherein the transition zone is of the current collector between the membrane zone (A) and the adapting welding zone (C) and coated with no electrode active material layer ; the current collector comprises a support layer and a conductive layer provided on at least one surface of the support layer , single-sided thickness D2 of the conductive layer satisfies: 30 nm ≤ D2 ≤ 3 μm, and the support layer is a polymer material layer or a polymer composite material layer; characterized in that the electrode plate further comprises a thermally conductive coating layer , and the thermally conductive coating layer covers at least a part of the electrical connection member in the adapting welding zone (C); and viewed in a width direction of a coated surface of the electrode plate, the electrode active material layer based on compacted density comprises 2n + 1 zones, and compacted density of a middle zone is greater than compacted density of zones on both sides, wherein n = 1, 2, or 3 and the width direction is a direction perpendicular to a coating direction.
A handrail, in particular for a scaffolding structures, for example a stairway scaffolding structures, comprising at least two handrail segments connected to one another by a connection unit to provide a continuous handrail , wherein at least one handrail securing element for securing the handrail segment to a scaffold element is secured to at least one of the handrail segments , wherein the connection unit comprises two connection elements that can pivot relative to one another about a pivot axis (S), wherein at least one connection element is/can be connected to one of the handrail segments connected to one another via the connection unit such that it can rotate about an axis of rotation (D 1 , D 2 ) that is not parallel and not orthogonal in relation to the pivot axis , wherein the at least one of the two connection elements has a handrail segment receiving opening that is open at a first axial end section of the connection element in the direction of the axis of rotation (D 1 , D 2 ) for receiving a handrail segment that can be rotated about the axis of rotation (D 1 , D 2 ) or a plug-in portion for being received in a handrail segment rotatably about the axis of rotation (D 1 , D 2 ), wherein each of the two connection elements has in a second axial end section of the connection element an end face that is angled in relation to the axis of rotation (D 1 , D 2 ), wherein the two connection elements with their angled end faces face each other and can pivot relative to one another about the pivot axis (S) that is substantially orthogonal in relation to the two angled end faces , wherein the two connection elements are connected to one another such that they can pivot about the pivot axis , by a connection element that can rotate about the pivot axis (S) at least in relation to one of the connection elements , characterized in that the connection element in association with each of the connection elements comprises a group of latching projections arranged in ring-like configuration about the pivot axis (S), wherein an opening is provided in each connection element receiving the respectively associated group of latching projections rotatable about the pivot axis .
An injection molding method for molding a mold comprising a fixed mold and a movable mold , which are mold-clamped by a mold clamping force at a predetermined mold clamping force, by injecting and filling resin (R) at a predetermined injection pressure by an injection device (Mi) and molding the mold, the injection method including using at least a mold clamping device (Me) that enables natural compression of the resin as the resin solidifies inside the mold, setting specific molding conditions in advance by determining a parting opening amount (Lm) that forms a predetermined gap between the movable mold and the fixed mold at the time of injection filling, and determining a molding injection pressure (Pi) that is an injection pressure capable of molding a good product and a molding clamping force (Pc) that is a mold clamping force capable of molding a good product, setting a fast injection speed (Vf) from the start of injection, which is higher than the injection speed set by the specific molding conditions, and setting a fast injection section (Zf) for continuing the fast injection speed as fast injection conditions, mold-clamping the mold by the molding clamping force during molding, and setting the molding injection pressure to a limit pressure (Ps), injecting and filling resin (R) into the mold from the start of injection under the fast injection conditions, injecting and filling resin (R) under the specific molding conditions by the end of the fast injection section (Zf), and then taking out the molded product from the mold when a predetermined cooling time has elapsed, wherein a switching determination value sets the fast injection section (Zf) with respect to the magnitude of the parting opening amount (Lm), the parting opening amount is detected during molding, and when the magnitude of the detected parting opening amount reaches the switching determination value, the molding condition is switched to the specific molding condition.