mhurhangee/patent-ind-claim-en huggingface dataset:
A pulse wave detector comprising: a flexible strain sensor having a plurality of strain detection elements arranged on a substrate , a detection face of the strain sensor being formed by respective surfaces of the strain detection elements ; a flexible pressing member for pressing the strain sensor fixed thereto against a body surface of a living body; a drive section for driving the pressing member ; a pressing control section for controlling a pressing force of the pressing member for pressing the strain sensor against the body surface by controlling the drive section ; a deformation stop timing determination section for determining a deformation stop timing at which deformation of the detection face of the strain sensor has been stopped based on a strain detection signal detected by each of the plurality of strain detection elements in a pressure raising process in which the pressing force is increased by the pressing control section; a calibration section for setting a level of the strain detection signal detected by each of the plurality of strain detection elements at the deformation stop timing as a reference level and for calibrating a first strain detection signal detected by each of the plurality of strain detection elements after the deformation stop timing based on the reference level; and a pressure generation section for generating a pressure signal from the calibrated first strain detection signal. a flexible strain sensor having a plurality of strain detection elements arranged on a substrate , a detection face of the strain sensor being formed by respective surfaces of the strain detection elements ; a flexible pressing member for pressing the strain sensor fixed thereto against a body surface of a living body; a drive section for driving the pressing member ; a pressing control section for controlling a pressing force of the pressing member for pressing the strain sensor against the body surface by controlling the drive section ; a deformation stop timing determination section for determining a deformation stop timing at which deformation of the detection face of the strain sensor has been stopped based on a strain detection signal detected by each of the plurality of strain detection elements in a pressure raising process in which the pressing force is increased by the pressing control section; a calibration section for setting a level of the strain detection signal detected by each of the plurality of strain detection elements at the deformation stop timing as a reference level and for calibrating a first strain detection signal detected by each of the plurality of strain detection elements after the deformation stop timing based on the reference level; and a pressure generation section for generating a pressure signal from the calibrated first strain detection signal.
Processing machine , at least one processing unit configured as a shaping unit following at least one processing unit configured as an application unit in a transport direction (T) of a substrate , at least one transport unit being arranged between the at least one processing unit configured as an application unit and the at least one succeeding processing unit , the at least one transport unit comprising a plurality of transport elements , and the transport elements of the plurality of transport elements being arranged one behind the other in the transport direction (T), characterized in that at least one transport element of the plurality of transport elements is axially adjustable based on the detection of at least one image-producing element of a substrate by at least one sensor for substrate alignment.
Vehicle electrical system having an inverter (WR), an electrical energy store (ES), an electrical machine (EM) and a DC transmission terminal (DC+, DC-) that is in the form of a plug-in connection or in the form of an on-vehicle device for inductive power transmission, wherein the inverter (WR) has a positive input current terminal (EA1) and a negative input current terminal (EA2) that are connected to the energy store (ES); the inverter (WR) has at least two phase current terminals (PS1, PS2, PS3) connected to the electrical machine (EM); and the inverter (WR) has at least two H-bridges (HB1, HB2, HB3), each of the H-bridges (HB1, HB2, HB3) being connected between the two input current terminals (EA1, EA2) and a respective one of the at least two phase current terminals (PS1, PS2, PS3), each H-bridge (HB1, HB2, HB3) comprising two arms, each arm comprising two switching elements (HS), and these two switching elements each being connected to one another via a connecting point, wherein the two connecting points of these two arms of each H-bridge are connected to one another via an inductance (L1 - L3), and a first of these two arms in each H-bridge connects the two input current terminals (EA1, EA2), and a second of these two arms in each H-bridge connects a negative instance of the input current terminals (EA2) and one of the phase current terminals (PS1, PS2, PS3), and wherein the DC transmission terminal (DC+, DC-) has a positive rail (DC+) connected to at least one of the phase current terminals (PS1, PS2, PS3) directly or via a switch (SW), and wherein there is provision for no current to flow via the electrical machine (EM) from the DC transmission terminal (DC+, DC-) via the inverter (WR) during a charging process for the energy store (ES). the inverter (WR) has at least two phase current terminals (PS1, PS2, PS3) connected to the electrical machine (EM); and the inverter (WR) has at least two H-bridges (HB1, HB2, HB3), each of the H-bridges (HB1, HB2, HB3) being connected between the two input current terminals (EA1, EA2) and a respective one of the at least two phase current terminals (PS1, PS2, PS3), each H-bridge (HB1, HB2, HB3) comprising two arms, each arm comprising two switching elements (HS), and these two switching elements each being connected to one another via a connecting point, wherein the two connecting points of these two arms of each H-bridge are connected to one another via an inductance (L1 - L3), and a first of these two arms in each H-bridge connects the two input current terminals (EA1, EA2), and a second of these two arms in each H-bridge connects a negative instance of the input current terminals (EA2) and one of the phase current terminals (PS1, PS2, PS3), and wherein the DC transmission terminal (DC+, DC-) has a positive rail (DC+) connected to at least one of the phase current terminals (PS1, PS2, PS3) directly or via a switch (SW), and wherein there is provision for no current to flow via the electrical machine (EM) from the DC transmission terminal (DC+, DC-) via the inverter (WR) during a charging process for the energy store (ES).
A simulated driving system that reproduces a running state of a vehicle (V2) that is running on a road, or a portion of said vehicle, by acquiring running data transmitted sequentially via wireless communication from the vehicle (V2) running on the road, and concurrently causing a vehicle or a portion thereof that are serving as a test body (V1) to perform simulated driving based on this running data, comprising: an automatic driving device configured to drive the test body (V1) automatically; a dynamometer configured to apply a load to the test body (V1); and a control device configured to control the automatic driving device or the dynamometer , characterized in that the control device has: a communication failure detection unit configured to detect that a failure has occurred in the wireless communication; and a control unit configured to, in the event where the communication failure detection unit has detected the failure, control the automatic driving device or the dynamometer such that the test body (V1) is placed in a predetermined safe driving state. an automatic driving device configured to drive the test body (V1) automatically; a dynamometer configured to apply a load to the test body (V1); and a control device configured to control the automatic driving device or the dynamometer , characterized in that the control device has: a communication failure detection unit configured to detect that a failure has occurred in the wireless communication; and a control unit configured to, in the event where the communication failure detection unit has detected the failure, control the automatic driving device or the dynamometer such that the test body (V1) is placed in a predetermined safe driving state. a communication failure detection unit configured to detect that a failure has occurred in the wireless communication; and a control unit configured to, in the event where the communication failure detection unit has detected the failure, control the automatic driving device or the dynamometer such that the test body (V1) is placed in a predetermined safe driving state.
Fish farming plant with a central tank that is at least partially surrounded by one or more fish tanks where at least one of the one or more fish tanks has an inner wall with an inner wall face and an outer wall with an outer wall face , said fish tank having a fish tank width defined as the distance between the inner wall face and the outer wall face along an extent of the at least one fish tank ; the fish farming plant further comprising at least one divider wall with a divider wall width between an inner end and an outer end of the divider wall and spanning between the inner wall face and the outer wall face ; characterised in that the divider wall width is larger than the fish tank width .
A sliding window arrangement comprising parallel upper and lower guide rails and at least two vertical windows (13-16), which are slidable on the guide rails along separate horizontal paths such that one window can be slid outside another, wherein each window (13-16) comprises a frame structure that displaceably engages said guide rails and comprises a window pane , wherein at least one window (14-16), when viewed from inside out, slid to a first position has a leading edge portion thereof arranged right behind an outwardly exposed trailing edge portion of an outer window (13-15) and slid to a second position has a leading edge portion thereof arranged essentially behind a leading edge portion of the outer window (13-15), and wherein at least one window (13-16) comprises a pane frame being pivotably mounted within the frame structure, wherein said pane frame holds the window pane and wherein said pane frame from a closed position, in which it is in parallel with said guide rails , can be swung open inwardly about a vertical axis of said at least one window (13-16) to an open position, in which it is at an angle to said guide rails , characterized in that the window pane of said at least one window (13-16) comprising the pane frame surpasses said pane frame and forms the outwardly exposed trailing edge portion of said at least one window (13-16), wherein a weather strip is arranged behind said outwardly exposed trailing edge portion to at least partially close a gap to a neighbouring window (13-15).
A valve assembly within an intervention work string used for performing an intervention work task within a wellbore , the valve assembly comprising: a housing defining a flowbore ; a plurality of flapper valve assemblies for selectively closing the flowbore , each of the flapper valve assemblies moveable between an open position and a closed position; a valve actuation mechanism for moving each flapper valve assembly between the open and closed positions, the valve actuation mechanism including: a rotatable gear wheel affixed to a rotary shaft ; a tubular roller screw member that is disposed within the flowbore and rotatable within the housing , the roller screw member being retained against axial movement within the flowbore by a locking ring ; and the roller screw member further has a toothed upper end with teeth which intermesh with teeth on the gear wheel for rotation of the roller screw member . a housing defining a flowbore ; a plurality of flapper valve assemblies for selectively closing the flowbore , each of the flapper valve assemblies moveable between an open position and a closed position; a valve actuation mechanism for moving each flapper valve assembly between the open and closed positions, the valve actuation mechanism including: a rotatable gear wheel affixed to a rotary shaft ; a tubular roller screw member that is disposed within the flowbore and rotatable within the housing , the roller screw member being retained against axial movement within the flowbore by a locking ring ; and the roller screw member further has a toothed upper end with teeth which intermesh with teeth on the gear wheel for rotation of the roller screw member . a rotatable gear wheel affixed to a rotary shaft ; a tubular roller screw member that is disposed within the flowbore and rotatable within the housing , the roller screw member being retained against axial movement within the flowbore by a locking ring ; and the roller screw member further has a toothed upper end with teeth which intermesh with teeth on the gear wheel for rotation of the roller screw member .
An electric current sensor characterized in that it comprises a fiber from a soft magnetic material with a uniform cross-sectional area and uniform magnetic properties along its whole length, equipped with an excitation coil wound on said fiber with a uniform winding density along the substantially whole length and optionally equipped with a sensing coil wound on said fiber with a uniform winding density along the substantially whole length, where said fiber ends are mechanically joined to form a loop enclosing the measured current-carrying conductor by said fiber , wherein said excitation coil is connected to the current output of a current source through a current transducer generating a current signal corresponding to the excitation current flowing through said excitation coil wherein the sensor is equipped with a voltage transducer generating a voltage signal corresponding to the voltage on the possibly present sensing coil or on the excitation coil wherein said voltage signal and said current signal are fed into a processor unit .
Multiregulating device for gas appliances, in particular for gas ovens, with a gas input , a gas output and a regulating region for regulating a gas volume flow, wherein an open-closed valve is arranged between the gas input and the regulating region , which can be actuated by means of a magnetically active body of the multiregulating device , wherein the magnetically active body is coupled to a rotatable component of the multiregulating device in order to influence the valve, wherein the open-closed valve has a movable shut-off body which, when the open-closed valve is closed, rests against a valve seat with a seal and in doing so closes off an opening in the valve seat , wherein the open-closed valve has a spring which, when the open-closed valve is closed, presses the shut-off body against the valve seat , wherein, in order to open the open-closed valve , the shut-off body raises from the valve seat by means of the force of the magnetically active body counter to the force of the spring , wherein the multiregulating device additionally has a target value encoder which likewise can be adjusted by means of the rotatable component of the multiregulating device , wherein the regulating region has a temperature regulator which is characterised in that a capillary tube couples a temperature sensor to a bellows , so that a gap is formed in an intermediate space between the adjustable target value encoder and a seal seat of the bellows , and wherein a bypass is arranged in parallel with the target value encoder .
A medical device , wherein the medical device comprises: • at least one first part , wherein the first part comprises at least one interconnect device , wherein the interconnect device comprises: - at least one first conductive layer ; - at least one insulation layer ; and - at least one second conductive layer , wherein the second conductive layer is separated from the first conductive layer at least by the insulation layer ; • at least one electrical contact , wherein the electrical contact comprises at least one electrical contact material , wherein the electrical contact is electrically connected to the second conductive layer , wherein the electrical contact is contactable from one side of the interconnect device opposing the second conductive layer , wherein the electrical contact is provided micro-via free; and • at least one second part , wherein the second part comprises at least one electrical connector , wherein the second part is configured to mate with the first part and to establish an electrical connection between the electrical connector of the second part and the first conductive layer and to establish an electrical connection between the electrical connector and the second conductive layer via the electrical contact . • at least one first part , wherein the first part comprises at least one interconnect device , wherein the interconnect device comprises: - at least one first conductive layer ; - at least one insulation layer ; and - at least one second conductive layer , wherein the second conductive layer is separated from the first conductive layer at least by the insulation layer ; - at least one first conductive layer ; - at least one insulation layer ; and - at least one second conductive layer , wherein the second conductive layer is separated from the first conductive layer at least by the insulation layer ; • at least one electrical contact , wherein the electrical contact comprises at least one electrical contact material , wherein the electrical contact is electrically connected to the second conductive layer , wherein the electrical contact is contactable from one side of the interconnect device opposing the second conductive layer , wherein the electrical contact is provided micro-via free; and • at least one second part , wherein the second part comprises at least one electrical connector , wherein the second part is configured to mate with the first part and to establish an electrical connection between the electrical connector of the second part and the first conductive layer and to establish an electrical connection between the electrical connector and the second conductive layer via the electrical contact .
A compound for use in treating a cancer or a cancerous condition or a tumor, wherein the compound is:
A security document or a decorative article comprising a substrate (x20) having a two-dimensional surface and one or more optical effect layers (OELs) on said substrate (x20), wherein said one or more optical effect layers (OELs) comprise magnetically oriented platelet-shaped magnetic or magnetizable pigment particles having a main axis X and being in an at least partially cured coating layer (x10), wherein an orientation of the platelet-shaped pigment particles is defined by a platelet vector which is the vector parallel to the main axis X of the particle, wherein the platelet vectors of neighboring platelet-shaped magnetic or magnetizable pigment particles are substantially parallel to each other, wherein the platelet vectors of the platelet-shaped magnetic or magnetizable pigment particles are angled with respect to the two-dimensional surface of the substrate (x20) at the positions of the particles by an elevation angle (γ), characterised in that said elevation angle (γ) is larger than 0° and smaller than 30° (0° < γ < 30°) or larger than 150° and smaller than 180° (150° < γ < 180°), so that the one or more optical effects layers (OELs) exhibit an increase of brightness to reach a maximum value of brightness and a decrease of brightness within a viewing angle from -45° to +45 ° of the substrate (x20). said one or more optical effect layers (OELs) comprise magnetically oriented platelet-shaped magnetic or magnetizable pigment particles having a main axis X and being in an at least partially cured coating layer (x10), wherein an orientation of the platelet-shaped pigment particles is defined by a platelet vector which is the vector parallel to the main axis X of the particle, wherein the platelet vectors of neighboring platelet-shaped magnetic or magnetizable pigment particles are substantially parallel to each other, wherein the platelet vectors of the platelet-shaped magnetic or magnetizable pigment particles are angled with respect to the two-dimensional surface of the substrate (x20) at the positions of the particles by an elevation angle (γ), characterised in that said elevation angle (γ) is larger than 0° and smaller than 30° (0° < γ < 30°) or larger than 150° and smaller than 180° (150° < γ < 180°), so that the one or more optical effects layers (OELs) exhibit an increase of brightness to reach a maximum value of brightness and a decrease of brightness within a viewing angle from -45° to +45 ° of the substrate (x20).
A surgical system for use in a surgical procedure, the surgical system comprising: a surgical instrument comprising an end effector configured to treat tissue at a surgical field during the surgical procedure; a surgical visualization system configured to track the surgical instrument in the surgical field; and a control circuit configured to: derive a first data set from the surgical visualization system indicative of a visual aspect of the surgical instrument relative to the surgical field; derive a second data set from the surgical instrument indicative of a functional aspect of the surgical instrument; and correlate the first data set with the second data set, wherein correlating the first data set with the second data set comprises developing a composite data set from the first data set and the second data set, wherein the composite data set is a first composite data set, characterised in that the control circuit is further configured to compare the first composite data set to a second composite data set ; wherein the control circuit is further configured to adjust an instrument parameter to address a detected deviation between the first composite data set and the second composite data set. a surgical instrument comprising an end effector configured to treat tissue at a surgical field during the surgical procedure; a surgical visualization system configured to track the surgical instrument in the surgical field; and a control circuit configured to: derive a first data set from the surgical visualization system indicative of a visual aspect of the surgical instrument relative to the surgical field; derive a second data set from the surgical instrument indicative of a functional aspect of the surgical instrument; and correlate the first data set with the second data set, wherein correlating the first data set with the second data set comprises developing a composite data set from the first data set and the second data set, wherein the composite data set is a first composite data set, characterised in that the control circuit is further configured to compare the first composite data set to a second composite data set ; derive a first data set from the surgical visualization system indicative of a visual aspect of the surgical instrument relative to the surgical field; derive a second data set from the surgical instrument indicative of a functional aspect of the surgical instrument; and correlate the first data set with the second data set, wherein correlating the first data set with the second data set comprises developing a composite data set from the first data set and the second data set, wherein the composite data set is a first composite data set, characterised in that the control circuit is further configured to compare the first composite data set to a second composite data set ; wherein the control circuit is further configured to adjust an instrument parameter to address a detected deviation between the first composite data set and the second composite data set.