mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus , comprising: a micromechanical scanning silicon mirror , comprising: a mirror section ; a first foot and a second foot ; a first flexure and a second flexure , the first flexure between the mirror section and the first foot , a distal end of the first flexure terminates at the first foot , the second flexure between the mirror section and the second foot , and a distal end of the second flexure terminates at the second foot ; a piezoresistive sensor ; and sensor contacts , the sensor contacts electrically coupled to the piezoresistive sensor ; a signal processing device ; wherein the signal processing device is mounted on the first foot of the micromechanical scanning silicon mirror ; and characterized in that: the apparatus further comprises wire bonds directly connected between the sensor contacts of the micromechanical scanning silicon mirror and the signal processing device ; and the micromechanical scanning silicon mirror and the signal processing device are part of separate dies. a micromechanical scanning silicon mirror , comprising: a mirror section ; a first foot and a second foot ; a first flexure and a second flexure , the first flexure between the mirror section and the first foot , a distal end of the first flexure terminates at the first foot , the second flexure between the mirror section and the second foot , and a distal end of the second flexure terminates at the second foot ; a piezoresistive sensor ; and sensor contacts , the sensor contacts electrically coupled to the piezoresistive sensor ; a mirror section ; a first foot and a second foot ; a first flexure and a second flexure , the first flexure between the mirror section and the first foot , a distal end of the first flexure terminates at the first foot , the second flexure between the mirror section and the second foot , and a distal end of the second flexure terminates at the second foot ; a piezoresistive sensor ; and sensor contacts , the sensor contacts electrically coupled to the piezoresistive sensor ; a signal processing device ; wherein the signal processing device is mounted on the first foot of the micromechanical scanning silicon mirror ; and characterized in that: the apparatus further comprises wire bonds directly connected between the sensor contacts of the micromechanical scanning silicon mirror and the signal processing device ; and the micromechanical scanning silicon mirror and the signal processing device are part of separate dies. the apparatus further comprises wire bonds directly connected between the sensor contacts of the micromechanical scanning silicon mirror and the signal processing device ; and the micromechanical scanning silicon mirror and the signal processing device are part of separate dies.
Floor cleaning machine, in particular a hand-guided and/or hand-held floor cleaning machine, comprising a support device , at least one cleaning roller which is arranged on the support device , is capable of being driven in rotation and is provided with a cleaning substrate , a fan device for creating a suction flow, and a suction channel device for the suction flow which provides at least one suction channel operatively connected for fluid communication between the fan device and the at least one cleaning roller , wherein the at least one suction channel has at least one mouth towards the at least one cleaning roller and wherein the at least one mouth comprises a first mouth wall and a spaced second mouth wall having a mouth opening formed therebetween, wherein the first mouth wall is positioned above the second mouth wall relative to the direction of gravity (g) when the at least one cleaning roller is placed on a floor that is to be cleaned, characterized in that the first mouth wall and/or the second mouth wall is in contact against or protrudes into the cleaning substrate of the at least one cleaning roller , and in that the at least one cleaning roller has associated therewith at least one sweeping lip which is configured such that it is placed against the floor to be cleaned, wherein the sweeping lip is arranged behind the cleaning roller .
Control module for opening and closing controlled air inlet for a heat engine, in particular for a motor vehicle, the pilot module being configured to issue a positioning command for an air inlet piloted in a predetermined position, characterized in that - the controlled air inlets are ventilation air inlets for the engine compartment of a heat engine and / or air inlets for the intake of a heat engine - Said module is configured to take into account data indicative of the arrival or not of the air inlet in the predetermined position, the module being configured to transmit, in the event of non arrival in the predetermined position, a positioning command of the controlled air inlet in a given position and take into account a datum indicative of the arrival in the given position, the module transmitting the positioning command in the position given repeatedly in the event of non-arrival in the given position , the module being configured to deliver a non-operating signal from the controlled air inlet in response to non-arrival in said given position after a predetermined number of successive transmissions of the positioning control in said given position, - the preset number of successive transmissions of the positioning control in said given position is chosen so that the duration of implementation of the preset number of successive transmissions does not drive the input air to a position contrary to a need for ventilation of the engine compartment. - the controlled air inlets are ventilation air inlets for the engine compartment of a heat engine and / or air inlets for the intake of a heat engine - Said module is configured to take into account data indicative of the arrival or not of the air inlet in the predetermined position, the module being configured to transmit, in the event of non arrival in the predetermined position, a positioning command of the controlled air inlet in a given position and take into account a datum indicative of the arrival in the given position, the module transmitting the positioning command in the position given repeatedly in the event of non-arrival in the given position , the module being configured to deliver a non-operating signal from the controlled air inlet in response to non-arrival in said given position after a predetermined number of successive transmissions of the positioning control in said given position, - the preset number of successive transmissions of the positioning control in said given position is chosen so that the duration of implementation of the preset number of successive transmissions does not drive the input air to a position contrary to a need for ventilation of the engine compartment.
Large manipulator , in particular truck-mounted concrete pump, comprising a boom pedestal rotatable about a vertical axis by means of a rotary drive , which pedestal is arranged on a frame , an articulated boom comprising two or more boom arms , wherein the boom arms are pivotally-movably connected, via articulated joints , to the respectively adjacent boom pedestal or boom arm by means of in each case one pivot drive , and comprising a control device controlling the drives for the boom movement, characterized in that the control device is configured to calculate a time-optimized control sequence for controlling the drives by means of numerically solving a dynamic optimization problem with boundary conditions by minimizing a power function containing a total time of a folding operation when transferring the articulated boom from an initial position (A) to a target position (B) or a variable directly derived therefrom as an optimization variable, wherein the control device is configured to, in an autonomous and time-optimized manner, transfer the articulated boom from the initial position (A) of the articulated boom to the predetermined target position (B) of the articulated boom by means of the control sequence for controlling the drives .
A system for atrial focal source detection, the system comprising: a plurality of sensors configured to detect a plurality of electro-cardiogram (ECG) signals each indicating electrical activity of a heart over time, each of the plurality of sensors configured to detect one of the ECG signals; a processing device comprising one or more processors configured to: determine, for each of the plurality of ECG signals, one or more local activation times (LATs) each indicating a time of activation of a corresponding ECG signal; detect whether one or more focal source areas of activation in the heart is indicated based on the detected ECG signals and the one or more local LATs; generate, based on the detected one or more focal source areas of activation, mapping information of the detected one or more focal source areas of activation in the heart; and provide the mapping information for one or more maps representing at least one of the electrical activity of the heart and the spatio-temporal manifestation of the electrical activity of the heart, characterised in that the mapping information is provided by visually indicating a percentage of encountered waves in which a sensor is activated earlier than neighboring sensors activated by a same atrial activation. a plurality of sensors configured to detect a plurality of electro-cardiogram (ECG) signals each indicating electrical activity of a heart over time, each of the plurality of sensors configured to detect one of the ECG signals; a processing device comprising one or more processors configured to: determine, for each of the plurality of ECG signals, one or more local activation times (LATs) each indicating a time of activation of a corresponding ECG signal; detect whether one or more focal source areas of activation in the heart is indicated based on the detected ECG signals and the one or more local LATs; determine, for each of the plurality of ECG signals, one or more local activation times (LATs) each indicating a time of activation of a corresponding ECG signal; detect whether one or more focal source areas of activation in the heart is indicated based on the detected ECG signals and the one or more local LATs; generate, based on the detected one or more focal source areas of activation, mapping information of the detected one or more focal source areas of activation in the heart; and provide the mapping information for one or more maps representing at least one of the electrical activity of the heart and the spatio-temporal manifestation of the electrical activity of the heart, characterised in that the mapping information is provided by visually indicating a percentage of encountered waves in which a sensor is activated earlier than neighboring sensors activated by a same atrial activation.
A tire comprising a tread portion having a first tread edge (Tel) and a second tread edge (Te2) and provided with a plurality of circumferential grooves extending continuously in the circumferential direction of the tire to axially divide the tread portion into a plurality of land regions , wherein the circumferential grooves include a second shoulder circumferential groove disposed most on the second tread edge (Te2) side among the circumferential grooves and a crown circumferential groove adjacent to the second shoulder circumferential groove on the first tread edge (Tel) side thereof, and the land regions include a second middle land region between the second shoulder circumferential groove and the crown circumferential groove , the second middle land region is provided with a plurality of middle lateral grooves extending across the entire width of the second middle land region to circumferentially divide the second middle land region into a plurality of middle blocks , and each of the middle blocks is provided with two first middle sipes each extending from the second shoulder circumferential groove , characterized in that one second middle sipe is disposed between the two first middle sipes and extends from the second shoulder circumferential groove to terminate within the middle block , wherein each of the first middle sipes extends in a wave-like manner in its depth direction, and the second middle sipe extends in a straight manner in its depth direction. the circumferential grooves include a second shoulder circumferential groove disposed most on the second tread edge (Te2) side among the circumferential grooves and a crown circumferential groove adjacent to the second shoulder circumferential groove on the first tread edge (Tel) side thereof, and the land regions include a second middle land region between the second shoulder circumferential groove and the crown circumferential groove , the second middle land region is provided with a plurality of middle lateral grooves extending across the entire width of the second middle land region to circumferentially divide the second middle land region into a plurality of middle blocks , and each of the middle blocks is provided with two first middle sipes each extending from the second shoulder circumferential groove , characterized in that one second middle sipe is disposed between the two first middle sipes and extends from the second shoulder circumferential groove to terminate within the middle block , wherein each of the first middle sipes extends in a wave-like manner in its depth direction, and the second middle sipe extends in a straight manner in its depth direction.
A method implemented by a system comprising a terminal and a base station , said method comprising: establishing , by the terminal , a connection with the base station ; during the step of establishing the connection with the base station , sending , by the terminal to the base station , terminal capability information which includes at least one field representing a terminal capability, wherein the terminal capability includes a latency capability and a data throughput capability; determining , by the base station , the terminal capability based on the terminal capability information; determining , by the base station , whether the terminal capability is within a capability interval, wherein the determining comprises determining whether the latency capability is within the capability interval; connecting , by the base station , the terminal to a mobile data network in accordance with the terminal capability information, wherein the connecting is performed if the base station determines that the terminal capability is within the capability interval, wherein endpoints of the capability interval are respectively a minimum latency capability and a maximum latency capability of the terminal supported by the mobile data network; determining , by the base station , a type of a service to be performed by the terminal based on the terminal capability information, and allocating , by the base station , network resources to the terminal in accordance with the type of the service; and processing , by the terminal , a service based on the network resources allocated by the base station . establishing , by the terminal , a connection with the base station ; during the step of establishing the connection with the base station , sending , by the terminal to the base station , terminal capability information which includes at least one field representing a terminal capability, wherein the terminal capability includes a latency capability and a data throughput capability; determining , by the base station , the terminal capability based on the terminal capability information; determining , by the base station , whether the terminal capability is within a capability interval, wherein the determining comprises determining whether the latency capability is within the capability interval; connecting , by the base station , the terminal to a mobile data network in accordance with the terminal capability information, wherein the connecting is performed if the base station determines that the terminal capability is within the capability interval, wherein endpoints of the capability interval are respectively a minimum latency capability and a maximum latency capability of the terminal supported by the mobile data network; determining , by the base station , a type of a service to be performed by the terminal based on the terminal capability information, and allocating , by the base station , network resources to the terminal in accordance with the type of the service; and processing , by the terminal , a service based on the network resources allocated by the base station .
An ink composition for a reversibly thermochromic stamp comprising: a reversibly thermochromic microencapsulated pigment encapsulating a reversibly thermochromic composition comprising: Component (A): an electron-donating color-developing organic compound, Component (B): an electron-accepting compound, and Component (C): a reaction medium causing reversibly an electron transfer reaction between the Component (A) and the Component (B) in a specific temperature range; water; and a thickener, wherein: an ink composition viscosity measured at 25°C with a BL-type viscometer at 6 rpm is from 3,000 to 10,000 mPa·s, and a thixotropy expressed by (ink composition viscosity measured at 6 rpm)/(ink composition viscosity measured at 60 rpm) is from 1.1 to 2.5. a reversibly thermochromic microencapsulated pigment encapsulating a reversibly thermochromic composition comprising: Component (A): an electron-donating color-developing organic compound, Component (B): an electron-accepting compound, and Component (C): a reaction medium causing reversibly an electron transfer reaction between the Component (A) and the Component (B) in a specific temperature range; Component (A): an electron-donating color-developing organic compound, Component (B): an electron-accepting compound, and Component (C): a reaction medium causing reversibly an electron transfer reaction between the Component (A) and the Component (B) in a specific temperature range; water; and a thickener, wherein: an ink composition viscosity measured at 25°C with a BL-type viscometer at 6 rpm is from 3,000 to 10,000 mPa·s, and a thixotropy expressed by (ink composition viscosity measured at 6 rpm)/(ink composition viscosity measured at 60 rpm) is from 1.1 to 2.5.
An air guide for a window , the window comprising at least a first casement to which a first pane is fastened, and a second casement to which a second pane is fastened, wherein an interspace is provided between the first pane and the second pane , wherein the air guide comprises a first wall , a second wall , a flow louver between the first wall and the second wall , and an air flow guide wall for guiding the replacement air into said first interspace of the window, wherein the first wall , the second wall and the flow louver form a first inlet for conveying replacement air into the air guide , wherein the air guide comprises means for fastening the air guide to the first casement of the window , characterized in that the distance between the first wall and the second wall reduces slightly when moving away from the flow louver , and in that a filter is supported by the first wall and the second wall , between them.
A clamp for applying a clamping force against a hose , comprising: - a ring-shaped clamp body of resilient material, the clamp body comprising two circumferential end portions ; - first and second protrusions extending radially outwardly from respective said end portions with respect to a circumference of the clamp body ; and - a manually operable actuating member movably being connected to the clamp body and/or to at least one of the first and second protrusions and being positionable between at least a first and a second actuating position thereby interacting with the first and second protrusions, wherein the first actuating position of the actuating member causes the clamp body to assume a clamping position having a reduced diametric dimension such that the clamp body is enabled to exert the clamping force against the hose , and wherein the second actuating position of the actuating member causes the clamp body to assume a loosened position having an expanded diametric dimension such that installation of the clamp body on the hose is enabled, characterized in that the clamp body has a resiliency such that it is biased towards its clamping position, wherein in its second actuating position the actuating member is enabled to exert an actuating force on the first and second protrusions against the spring force of the clamp body such that the clamp body assumes its loosened position, and wherein in its first actuating position the actuating member is enabled to release the actuating force on the first and second protrusions such that the clamp body automatically assumes its clamping position. - a ring-shaped clamp body of resilient material, the clamp body comprising two circumferential end portions ; - first and second protrusions extending radially outwardly from respective said end portions with respect to a circumference of the clamp body ; and - a manually operable actuating member movably being connected to the clamp body and/or to at least one of the first and second protrusions and being positionable between at least a first and a second actuating position thereby interacting with the first and second protrusions,
A method for fluid flow ( Q i ) measurement for a discrete area of a fluid supply network , the fluid supply network comprising a network of pipes for delivering a fluid to consumers , wherein the network of pipes comprises at least one main pipe to transport fluid from a source into the fluid supply network , wherein the main pipe crosses a boundary between the discrete area and a further area of the fluid supply network , and a plurality of distribution pipes , wherein each distribution pipe is adapted to transport fluid from the main pipe to a consumer fluidly connected to the distribution pipe , and a plurality of nodes that are junctions of at least two pipes, wherein two such nodes that are located on the same main pipe on different sides of the boundary without any further nodes located between them are boundary nodes ; a plurality of key metering points wherein each key metering point is located on a distribution pipe and equipped with a pressure sensor and a consumption gauge , wherein each pressure sensor is adapted to make a measurement of fluid pressure ( P 1 , P 2 ) in the distribution pipe where the pressure sensor is installed; each consumption gauge is adapted to measure fluid consumption ( q 1 , q 2 ) by consumers that are fluidly connected to the distribution pipe on which the consumption gauge is installed, comprising steps of a) taking measurements of the fluid pressure ( P 1 ) and the fluid consumption ( q 1 ) on at least one selected first key metering point that is located inside the discrete area , b) taking measurements of the fluid pressure ( P 2 ) and the fluid consumption ( q 2 ) on at least one selected second key metering point that is located inside the further area , c) calculating the fluid flow (Qi) in the at least one main pipe using the Kirchhoff's system of equations for fluid pressures (P1, P2) and the fluid consumptions (q1, q2) measured on the selected key metering points . each pressure sensor is adapted to make a measurement of fluid pressure ( P 1 , P 2 ) in the distribution pipe where the pressure sensor is installed; each consumption gauge is adapted to measure fluid consumption ( q 1 , q 2 ) by consumers that are fluidly connected to the distribution pipe on which the consumption gauge is installed, a) taking measurements of the fluid pressure ( P 1 ) and the fluid consumption ( q 1 ) on at least one selected first key metering point that is located inside the discrete area , b) taking measurements of the fluid pressure ( P 2 ) and the fluid consumption ( q 2 ) on at least one selected second key metering point that is located inside the further area , c) calculating the fluid flow (Qi) in the at least one main pipe using the Kirchhoff's system of equations for fluid pressures (P1, P2) and the fluid consumptions (q1, q2) measured on the selected key metering points .