mhurhangee/patent-ind-claim-en huggingface dataset:
A device for supporting determination of return of spontaneous circulation, ROSC, during an associated cardiopulmonary resuscitation, CPR, procedure which is being performed on an associated patient, the device comprising: an input for receiving a signal from a sensor for sensing a physiological signal of the patient; a processor , which is adapted to: perform frequency analysis of the physiological signal; detect and discriminate compression-induced components and spontaneous pulse components within the physiological signal, wherein the spontaneous pulse components include a stable fundamental spontaneous pulse rate component and one or more arrhythmic spontaneous pulse components; and provide an output based on the detected compression-induced components and spontaneous pulse components within the physiological signal to support determination that there has been ROSC; and a display device , wherein the processor is adapted to control the display device to output an image which shows the compression-induced components and spontaneous pulse components within the physiological signal over time as a frequency-time plot, wherein the stable fundamental spontaneous pulse rate component and the one or more arrhythmic spontaneous pulse components are shown upon return of spontaneous circulation of the associated patient. an input for receiving a signal from a sensor for sensing a physiological signal of the patient; a processor , which is adapted to: perform frequency analysis of the physiological signal; detect and discriminate compression-induced components and spontaneous pulse components within the physiological signal, wherein the spontaneous pulse components include a stable fundamental spontaneous pulse rate component and one or more arrhythmic spontaneous pulse components; and provide an output based on the detected compression-induced components and spontaneous pulse components within the physiological signal to support determination that there has been ROSC; and perform frequency analysis of the physiological signal; detect and discriminate compression-induced components and spontaneous pulse components within the physiological signal, wherein the spontaneous pulse components include a stable fundamental spontaneous pulse rate component and one or more arrhythmic spontaneous pulse components; and provide an output based on the detected compression-induced components and spontaneous pulse components within the physiological signal to support determination that there has been ROSC; and a display device , wherein the processor is adapted to control the display device to output an image which shows the compression-induced components and spontaneous pulse components within the physiological signal over time as a frequency-time plot, wherein the stable fundamental spontaneous pulse rate component and the one or more arrhythmic spontaneous pulse components are shown upon return of spontaneous circulation of the associated patient.
Device (D) for damping of vibrations of a machine , in particular for damping of vibrations of a machine tool, having: • A first linear motor primary part (LMP1), • A pendulum mass (PM), which is mounted by means of at least one supporting sheet metal assembly in such a way that a relative movement of the pendulum mass (PM) along the first linear motor primary part (LMP1) can be performed, • A first linear motor secondary part (LMS1), which is fastened to the pendulum mass (PM) in such a way that the pendulum mass (PM) can be actuated by means of the first linear motor primary part (LMP1) in order to damp vibrations of the machine , • A second linear motor primary part (LMP2), wherein the pendulum mass (PM) is arranged between the linear motor primary parts (LMP1, LMP2) and • A second linear motor secondary part (LMS2), which is fastened to the pendulum mass (PM) in such a way that the pendulum mass (PM) can be actuated additionally by means of the second linear motor primary part (LMP1) in order to damp vibrations of the machine . • A first linear motor primary part (LMP1), • A pendulum mass (PM), which is mounted by means of at least one supporting sheet metal assembly in such a way that a relative movement of the pendulum mass (PM) along the first linear motor primary part (LMP1) can be performed, • A first linear motor secondary part (LMS1), which is fastened to the pendulum mass (PM) in such a way that the pendulum mass (PM) can be actuated by means of the first linear motor primary part (LMP1) in order to damp vibrations of the machine , • A second linear motor primary part (LMP2), wherein the pendulum mass (PM) is arranged between the linear motor primary parts (LMP1, LMP2) and • A second linear motor secondary part (LMS2), which is fastened to the pendulum mass (PM) in such a way that the pendulum mass (PM) can be actuated additionally by means of the second linear motor primary part (LMP1) in order to damp vibrations of the machine .
A method for operating a wireless station device , comprising: communicating with other station devices in a wireless network via a wireless channel, wherein the wireless channel is determined to be not busy by comparing received signals to a clear channel assessment, CCA, threshold; when operating outside of a spatial reuse phase, employing a normal CCA threshold to detect when the wireless channel is busy; when operating during a spatial reuse phase, employing a virtual CCA threshold that is greater than the normal CCA threshold; the method being characterized by transmitting a frame to announce to the other station devices that the spatial reuse phase is to occur with a network allocation vector, NAV, duration that includes the spatial reuse phase. communicating with other station devices in a wireless network via a wireless channel, wherein the wireless channel is determined to be not busy by comparing received signals to a clear channel assessment, CCA, threshold; when operating outside of a spatial reuse phase, employing a normal CCA threshold to detect when the wireless channel is busy; when operating during a spatial reuse phase, employing a virtual CCA threshold that is greater than the normal CCA threshold; the method being characterized by transmitting a frame to announce to the other station devices that the spatial reuse phase is to occur with a network allocation vector, NAV, duration that includes the spatial reuse phase.
A method performed by a network node for indicating a modulation and coding scheme for a wireless device operating in a coverage enhancement Mode A, wherein the wireless device operates with a first modulation and coding scheme using physical downlink shared channel repetitions and with a second modulation and coding scheme without using physical downlink shared channel repetitions, and wherein the first modulation and coding scheme is one of QPSK and 16QAM and the second modulation and coding scheme is 64QAM, the method comprising: determining whether repetitions are being used for transmissions over a DL shared channel to a wireless device; and when repetitions are not being used, configuring the downlink control information to indicate one or more parameters related to the second modulation and coding scheme, and setting a one or more downlink control information field bits, which are used in relation to repetitions when repetitions of a physical downlink shared channel are used, to indicate that the one or more parameters related to the second modulation and coding scheme comprise a modulation and transport block size index corresponding to a table for physical downlink shared channel modulation and transport block sizes, wherein the MCS index the wireless device should use for determining the modulation format and TBS is given by adding 16 to the 4 bit value of an MCS field of the downlink control information. determining whether repetitions are being used for transmissions over a DL shared channel to a wireless device; and when repetitions are not being used, configuring the downlink control information to indicate one or more parameters related to the second modulation and coding scheme, and setting a one or more downlink control information field bits, which are used in relation to repetitions when repetitions of a physical downlink shared channel are used, to indicate that the one or more parameters related to the second modulation and coding scheme comprise a modulation and transport block size index corresponding to a table for physical downlink shared channel modulation and transport block sizes, wherein the MCS index the wireless device should use for determining the modulation format and TBS is given by adding 16 to the 4 bit value of an MCS field of the downlink control information.
A method for manufacturing a CMOS image sensor encapsulation structure comprising: forming a blind hole in a combined layer formed by a first insulating layer and a wafer , wherein the blind hole passes through the first insulating layer with its hole bottom located on the wafer , and a surface of the first insulating layer facing away from the wafer has a micro convex lens ; forming a second insulating layer on a hole wall of the blind hole , then filling an electrically conductive material in the blind hole having the second insulating layer , and making a conductor in the combined layer extend to a surface of the first insulating layer to be electrically connected to the electrically conductive material , with the conductor in signal connection with the micro convex lens and an IC comprising internal elements and circuits, characterized in that a position of the IC in the combined layer is located above a bottom portion of the blind hole ; and fixing the transparent substrate material on a surface of the first insulating layer , with the surface having the micro convex lens , forming a dummy wafer on a surface of the transparent substrate material , and then thinning the wafer by grinding such that the electrically conductive material in the blind hole is exposed. forming a blind hole in a combined layer formed by a first insulating layer and a wafer , wherein the blind hole passes through the first insulating layer with its hole bottom located on the wafer , and a surface of the first insulating layer facing away from the wafer has a micro convex lens ; forming a second insulating layer on a hole wall of the blind hole , then filling an electrically conductive material in the blind hole having the second insulating layer , and making a conductor in the combined layer extend to a surface of the first insulating layer to be electrically connected to the electrically conductive material , with the conductor in signal connection with the micro convex lens and an IC comprising internal elements and circuits, characterized in that a position of the IC in the combined layer is located above a bottom portion of the blind hole ; and fixing the transparent substrate material on a surface of the first insulating layer , with the surface having the micro convex lens , forming a dummy wafer on a surface of the transparent substrate material , and then thinning the wafer by grinding such that the electrically conductive material in the blind hole is exposed.
A method, comprising contacting a surface of a conversion-coated metal substrate with an aqueous mixture comprised of at least one preformed reaction product of at least one catechol compound and at least one co-reactant compound comprised of one or more functional groups reactive with the at least one catechol compound to provide a sealed conversion-coated metal substrate, wherein the at least one catechol compound includes at least one amine-functionalized catechol compound or salt thereof and wherein the at least one co-reactant compound includes at least one polyamine containing two or more amine groups per molecule which are primary amine groups, secondary amine groups or both primary and secondary amine groups.
Computer-implemented method for calculating an output from a tomographic scrollable image stack , including a large number of generated sectional images of a tissue to be examined, having the following steps: - receiving (S1) the scrollable image stack from a tomography unit ; - calculating (S2) the output for a display unit , wherein the output includes a primary image that is intended for representing the received image stack , and wherein the output includes a secondary image with additional information , wherein the secondary image is displayed overlaid on the primary image once an unhide or hide signal is received, wherein the overlaid form includes overlaying on the grayscale values of the primary image the grayscale values of the secondary image, by blending the grayscale values, wherein the blending takes place in dependence on a speed of a leafing through the image stack. - receiving (S1) the scrollable image stack from a tomography unit ; - calculating (S2) the output for a display unit , wherein the output includes a primary image that is intended for representing the received image stack , and wherein the output includes a secondary image with additional information , wherein the secondary image is displayed overlaid on the primary image once an unhide or hide signal is received, wherein the overlaid form includes overlaying on the grayscale values of the primary image the grayscale values of the secondary image, by blending the grayscale values, wherein the blending takes place in dependence on a speed of a leafing through the image stack.
A method of decoding implemented by a video decoder, comprising: determining, by the video decoder, whether a resolution of a current picture being decoded is the same as the resolution of reference pictures identified by a reference picture list associated with the current picture; enabling, by the video decoder, decoder-side motion vector refinement, DMVR, for a current block of the current picture when the resolution of the current picture is determined to be the same as the resolution of each of the reference pictures; disabling, by the video decoder, the DMVR for the current block of the current picture when the resolution of the current picture is determined to be different than the resolution of either of the reference pictures; and decoding, by the video decoder, the current block. determining, by the video decoder, whether a resolution of a current picture being decoded is the same as the resolution of reference pictures identified by a reference picture list associated with the current picture; enabling, by the video decoder, decoder-side motion vector refinement, DMVR, for a current block of the current picture when the resolution of the current picture is determined to be the same as the resolution of each of the reference pictures; disabling, by the video decoder, the DMVR for the current block of the current picture when the resolution of the current picture is determined to be different than the resolution of either of the reference pictures; and decoding, by the video decoder, the current block.
Clamping apparatus for clamping two or more items together in use, said clamping apparatus including at least one clamping member having an inwardly facing surface, or an inner surface arranged to be brought into contact, directly or indirectly, with an outer surface of at least one of the items being clamped in use, and characterised in that thermal insulating means are integral with or provided as a continuous layer or coating on the entire inwardly facing surface or inner surface of the at least one clamping member.
A method for analyzing a plurality of samples, comprising: obtaining with an autosampler a plurality of samples from a first plate having a plurality of sample wells (108a-g, 208a-g, 308a-g, 408a-g, 508a-g, 608a-g) wherein the autosampler comprises a plurality of probes (104a-d, 204a-d, 304a-d, 404a-d, 504a-d, 604a-d) for sampling the plurality of samples and wherein each probe of the plurality of probes is in communication with a separate flow cytometer via a separate conduit (110a-d, 210a-d, 310a-d, 410a-d, 510a-d, 610a-d) moving the plurality of samples comprising particles into a fluid flow stream for each separate conduit; separating adjacent ones of the plurality of samples from each other in the fluid flow stream by a separation gas, thereby forming a gas-separated fluid flow stream; independently guiding the gas-separated fluid flow stream to and through each separate flow cytometer; operating each separate flow cytometer to focus the gas-separated fluid flow stream and to selectively analyze the particles in each of the plurality of samples as the gas-separated fluid flow stream passes through each separate flow cytometer. obtaining with an autosampler a plurality of samples from a first plate having a plurality of sample wells (108a-g, 208a-g, 308a-g, 408a-g, 508a-g, 608a-g) wherein the autosampler comprises a plurality of probes (104a-d, 204a-d, 304a-d, 404a-d, 504a-d, 604a-d) for sampling the plurality of samples and wherein each probe of the plurality of probes is in communication with a separate flow cytometer via a separate conduit (110a-d, 210a-d, 310a-d, 410a-d, 510a-d, 610a-d) moving the plurality of samples comprising particles into a fluid flow stream for each separate conduit; separating adjacent ones of the plurality of samples from each other in the fluid flow stream by a separation gas, thereby forming a gas-separated fluid flow stream; independently guiding the gas-separated fluid flow stream to and through each separate flow cytometer; operating each separate flow cytometer to focus the gas-separated fluid flow stream and to selectively analyze the particles in each of the plurality of samples as the gas-separated fluid flow stream passes through each separate flow cytometer.
An electronic system for displaying visual information to a user , the electronic system comprising: a head-mounted display, HMD including a near-eye display, NED ; a microprocessor in data communication with the NED ; and a storage device in data communication with the microprocessor, the storage device having instructions stored thereon which, when executed by the microprocessor, cause the microprocessor to: identify an origin point and target point , the target point being part of a virtual object to be procedurally generated by the microprocessor, calculate an object distance between the origin point and the target point in three-dimensional space, adjust a threshold value of a distance test using the object distance, determine an interpolated shader value for the target point from the distance test, procedurally generate the virtual object by applying a shader, during rendering, to the target point using the interpolated shader value for the target point , and display the virtual object to the user with the NED . a head-mounted display, HMD including a near-eye display, NED ; a microprocessor in data communication with the NED ; and a storage device in data communication with the microprocessor, the storage device having instructions stored thereon which, when executed by the microprocessor, cause the microprocessor to: identify an origin point and target point , the target point being part of a virtual object to be procedurally generated by the microprocessor, calculate an object distance between the origin point and the target point in three-dimensional space, adjust a threshold value of a distance test using the object distance, determine an interpolated shader value for the target point from the distance test, procedurally generate the virtual object by applying a shader, during rendering, to the target point using the interpolated shader value for the target point , and display the virtual object to the user with the NED . identify an origin point and target point , the target point being part of a virtual object to be procedurally generated by the microprocessor, calculate an object distance between the origin point and the target point in three-dimensional space, adjust a threshold value of a distance test using the object distance, determine an interpolated shader value for the target point from the distance test, procedurally generate the virtual object by applying a shader, during rendering, to the target point using the interpolated shader value for the target point , and display the virtual object to the user with the NED .
Hydraulic system of a transmission having a plurality of pressure regulating valves, among them a plurality of clutch valves and first pressure regulating valves , it being possible for a prevailing pressure (p_sys) to be adjusted in the region of all pressure regulating valves to a pressure level to be set downstream in a manner which is dependent on an overall force component which acts in each case on a valve slide in a manner which is dependent on the operating state, the overall force component being set in a manner which is dependent on a pilot control force component which can be applied in each case on the valve slide , an actuating force component and a regulating force component which is dependent on the pressure level which prevails downstream, it being possible for the pilot control force component and the actuating force component of the first pressure regulating valves to be applied at the valve slide in a respectively identically acting manner in the direction of a first end position of a valve slide of a first pressure regulating valve , in which first end position the region upstream of the first pressure regulating valve is connected to the region downstream of the first pressure regulating valve via the first pressure regulating valve, whereas the pressure downstream of the first pressure regulating valve of the pilot control force component and the actuating force component can be applied at the valve slide in a counteracting manner in the direction of a second end position of the valve slide, in which second end position the region downstream of a pressure regulating valve is connected to a low pressure region , characterized in that the clutch valves can be brought into an operative connection via a valve unit which can be pilot controlled to a region which conducts pressure (p_sys) of a primary pressure circuit or to a further valve unit , the further valve unit being configured as a pressure limiting valve and setting a predefined pressure level upstream of the further valve unit , and being connected downstream to a low pressure region .
A composition comprising a mercury re-emission additive; and a polymer dispersant, wherein the mercury re-emission additive is a polymeric polydithiocarbamate compound, and wherein the polymer dispersant is a polyacrylate.