mhurhangee/patent-ind-claim-en huggingface dataset:
An ultrasound system for phase determination in echocardiography, the system comprising: a wireless heart rate sensor for providing a pulse signal for a patient, the pulse signal indicating one heart beat without phasing per cardiac cycle; an ultrasound echocardiography scanner configured to wirelessly receive the pulse signal , acquire an ultrasound image from a scan of the patient, and determine a phase for the ultrasound image using image processing assisted by the pulse signal ; wherein the image processing is used to make up for the lack of an ECG waveform or wherein the heart rate sensor does not provide accurate information about the phase, or the phase information is not available at all from the heart rate sensor; and a display configured to display the ultrasound image and the phase, wherein the ultrasound echocardiography scanner is configured to determine the phase for the ultrasound image with image processing of a sequence of images including the ultrasound image, the image processing having a search temporally limited by the pulse signal , or wherein the ultrasound echocardiographic scanner is configured to use the image processing to identify a cardiac event, to compute a time delay (Δt) between the pulse signal and the cardiac event which is used to temporally align a heart cycle trace , and to determine the phase for the ultrasound image from the heart cycle trace fit to the pulse signal. a wireless heart rate sensor for providing a pulse signal for a patient, the pulse signal indicating one heart beat without phasing per cardiac cycle; an ultrasound echocardiography scanner configured to wirelessly receive the pulse signal , acquire an ultrasound image from a scan of the patient, and determine a phase for the ultrasound image using image processing assisted by the pulse signal ; wherein the image processing is used to make up for the lack of an ECG waveform or wherein the heart rate sensor does not provide accurate information about the phase, or the phase information is not available at all from the heart rate sensor; and a display configured to display the ultrasound image and the phase, wherein the ultrasound echocardiography scanner is configured to determine the phase for the ultrasound image with image processing of a sequence of images including the ultrasound image, the image processing having a search temporally limited by the pulse signal , or wherein the ultrasound echocardiographic scanner is configured to use the image processing to identify a cardiac event, to compute a time delay (Δt) between the pulse signal and the cardiac event which is used to temporally align a heart cycle trace , and to determine the phase for the ultrasound image from the heart cycle trace fit to the pulse signal.
A transcatheter prosthesis having a radially compressed configuration for delivery within a vasculature and a radially expanded configuration for deployment within a native anatomy comprising: a frame ; a fixation member extending outwardly from an outer surface of the frame ; and a resilient elongate member slidably disposed within the fixation member , the resilient elongate member having a radially contracted state when in tension and a radially expanded state when relaxed, wherein the resilient elongate member in the radially contracted state is configured to hold the prosthesis in the radially compressed configuration and, wherein at least the resilient elongate member in the radially expanded state provides a seal between the prosthesis and the native anatomy when the prosthesis is in the radially expanded configuration, and wherein the resilient elongate member has a generally helical path about the outer surface of the frame . a frame ; a fixation member extending outwardly from an outer surface of the frame ; and a resilient elongate member slidably disposed within the fixation member , the resilient elongate member having a radially contracted state when in tension and a radially expanded state when relaxed, wherein the resilient elongate member in the radially contracted state is configured to hold the prosthesis in the radially compressed configuration and, wherein at least the resilient elongate member in the radially expanded state provides a seal between the prosthesis and the native anatomy when the prosthesis is in the radially expanded configuration, and wherein the resilient elongate member has a generally helical path about the outer surface of the frame .
Electrical line , comprising at least three cores with respectively one conductor surrounded by a core sheath , wherein - two of the cores are designed as signal cores and, with a common partial line sheath surrounding them, form a first partial line , in particular a signal line, - another of the cores is designed as a power core and forms a second partial line , in particular a power line, - the cores are surrounded by a separating sleeve , which in turn is surrounded by a common sheath of the electrical line , wherein the partial line sheath has an inner sheath section and an outer sheath section , and the outer sheath section is harder than the inner sheath section , characterized in that the partial line sheath of the first partial line is formed from a thermoplastic polyurethane elastomer, wherein the material composition is varied in such a way that the outer sheath section is harder. - two of the cores are designed as signal cores and, with a common partial line sheath surrounding them, form a first partial line , in particular a signal line, - another of the cores is designed as a power core and forms a second partial line , in particular a power line, - the cores are surrounded by a separating sleeve , which in turn is surrounded by a common sheath of the electrical line , wherein the partial line sheath has an inner sheath section and an outer sheath section , and the outer sheath section is harder than the inner sheath section ,
A curable resin comprising a curing agent, wherein the curing agent comprises an adjustable structural unit having a chain-like arrangement which is adjustable to a ring-like arrangement, wherein the ring-like arrangement comprises the constituents of the chain-like arrangement with at least two terminal constituents exhibiting a bond weaker than a covalent bond, and is adjustable back from the ring-like arrangement to the chain-like arrangement by separation of the two terminal constituents; and further wherein the curing agent has the formula X1 - B - X2, wherein X1 and X2 each comprise at least one functional reactive group which is attached to a rigid non-functional ring-like unit, and the B-sequence comprises a backbone bonded to the ring-like unit in each of X1 and X2, the B-sequence further comprising at least two -CO-groups and a cycloaliphatic group.
A control device for a hybrid vehicle with an EV mode as a travel mode, the hybrid vehicle including: an engine , a transmission configured to change rotation of the engine at a transmission gear ratio corresponding to one of gear stages which is established, and output the changed rotation to a driving wheel , a clutch configured to be switched between an engaged state where power is transmitted between the engine and the transmission , and a release state where the power is not transmitted therebetween, and a motor to transmit power thereof to the driving wheel , the transmission being configured to switch the established gear stage to another one in response to an operation of a clutch pedal and an operation of a shift lever by a driver, the control device comprising a control unit to cause, in the EV mode, the clutch to be released to thereby cause the hybrid vehicle to travel by the power from the motor without using the power of the engine , the control unit being configured to perform, during the traveling in the EV mode, a pseudo engine stall control of reducing a torque of the motor if a motor rotational speed falls below a rotational speed that corresponds to an idle rotational speed of the engine , the control device being characterized by the control unit performing, upon performing the pseudo engine stall control, a rotation suppressing control of suppressing rotation of the driving wheel . an engine , a transmission configured to change rotation of the engine at a transmission gear ratio corresponding to one of gear stages which is established, and output the changed rotation to a driving wheel , a clutch configured to be switched between an engaged state where power is transmitted between the engine and the transmission , and a release state where the power is not transmitted therebetween, and a motor to transmit power thereof to the driving wheel , the transmission being configured to switch the established gear stage to another one in response to an operation of a clutch pedal and an operation of a shift lever by a driver, the control device comprising a control unit to cause, in the EV mode, the clutch to be released to thereby cause the hybrid vehicle to travel by the power from the motor without using the power of the engine , the control unit being configured to perform, during the traveling in the EV mode, a pseudo engine stall control of reducing a torque of the motor if a motor rotational speed falls below a rotational speed that corresponds to an idle rotational speed of the engine , the control device being characterized by the control unit performing, upon performing the pseudo engine stall control, a rotation suppressing control of suppressing rotation of the driving wheel .
A method for swapping a low-state-of-charge first battery of a battery-to-be-swapped vehicle by a new second battery from a mobile battery swapping van , wherein the method comprises: moving the mobile battery swapping van to a battery swap position near the battery-to-be-swapped vehicle ; connecting a positioning line of the mobile battery swapping van to a predetermined reference point of the battery-to-be-swapped vehicle ; obtaining a distance between a coordinate origin of a hoister of the mobile battery swapping van and the reference point of the battery-to-be-swapped vehicle , and angles of the positioning line with respect to a travel direction (x), a longitudinal direction (y), and a vertical direction (z), respectively, of the battery-to-be-swapped vehicle ; determining, based on the obtained distance and angles, a moving track (P) of an end effector of the hoister , which is adapted to clamp the first battery and the second battery ; correcting the moving track (P) of the end effector of the hoister based on an image of a mounting location, wherein the image of the mounting location is an image of a location of the second battery with respect to the battery-to-be-swapped vehicle and is obtained by an imaging device; and moving the end effector of the hoister along the moving track (P) for replacing the first battery of the battery-to-be-swapped vehicle with the second battery . moving the mobile battery swapping van to a battery swap position near the battery-to-be-swapped vehicle ; connecting a positioning line of the mobile battery swapping van to a predetermined reference point of the battery-to-be-swapped vehicle ; obtaining a distance between a coordinate origin of a hoister of the mobile battery swapping van and the reference point of the battery-to-be-swapped vehicle , and angles of the positioning line with respect to a travel direction (x), a longitudinal direction (y), and a vertical direction (z), respectively, of the battery-to-be-swapped vehicle ; determining, based on the obtained distance and angles, a moving track (P) of an end effector of the hoister , which is adapted to clamp the first battery and the second battery ; correcting the moving track (P) of the end effector of the hoister based on an image of a mounting location, wherein the image of the mounting location is an image of a location of the second battery with respect to the battery-to-be-swapped vehicle and is obtained by an imaging device; and moving the end effector of the hoister along the moving track (P) for replacing the first battery of the battery-to-be-swapped vehicle with the second battery .
A memory interface for interfacing between a memory bus addressable using a physical address space and a cache memory addressable using a virtual address space, the memory interface comprising: a memory management unit configured to maintain a mapping from the virtual address space to the physical address space; and a coherency manager comprising a reverse translation module having a reverse translation data structure configured to maintain a mapping from the physical address space to the virtual address space, and the coherency manager being configured to maintain, at the reverse translation data structure, entries only for coherent cache lines held in the cache memory; wherein the memory interface is configured to: receive a memory read request from the cache memory, the memory read request being addressed in the virtual address space; translate the memory read request, at the memory management unit, to a translated memory read request addressed in the physical address space for transmission on the memory bus; receive a snoop request from the memory bus, the snoop request being addressed in the physical address space; and translate the snoop request, at the coherency manager, to a translated snoop request addressed in the virtual address space for processing in connection with the cache memory. a memory management unit configured to maintain a mapping from the virtual address space to the physical address space; and a coherency manager comprising a reverse translation module having a reverse translation data structure configured to maintain a mapping from the physical address space to the virtual address space, and the coherency manager being configured to maintain, at the reverse translation data structure, entries only for coherent cache lines held in the cache memory; receive a memory read request from the cache memory, the memory read request being addressed in the virtual address space; translate the memory read request, at the memory management unit, to a translated memory read request addressed in the physical address space for transmission on the memory bus; receive a snoop request from the memory bus, the snoop request being addressed in the physical address space; and translate the snoop request, at the coherency manager, to a translated snoop request addressed in the virtual address space for processing in connection with the cache memory.
An automated storage system comprising a plurality of upright members and horizontal members defining a framework structure in the form of a grid of storage columns containing storage containers arranged in stacks , and having automated container handling vehicles (201/301) operating on a rail system on a top level of the grid , the rail system comprising perpendicular horizontal tracks (110/111) upon which the vehicles can travel in a first direction and a second direction perpendicular to the first direction, the intersection of the perpendicular tracks further defining cells above grid columns , wherein the system comprises: a platform vertically movable adjacent to a face of the grid , arranged for receiving and transporting one or more containers , a dedicated mechanical device arranged for grabbing, lifting and moving the storage containers from the top of the grid and placing containers on the platform and vice versa CHARACTERIZED IN THAT the dedicated mechanical device is a manipulator trolley arranged to travel along two parallel trolley rails , said trolley rails extending from a position above the grid to a position above the platform , wherein the area between the trolley rails defines a staging area comprising a plurality of cells arranged to receive storage bins awaiting retrieval by the manipulator trolley and/or to receive storage bins awaiting retrieval by the handling vehicles . a platform vertically movable adjacent to a face of the grid , arranged for receiving and transporting one or more containers , a dedicated mechanical device arranged for grabbing, lifting and moving the storage containers from the top of the grid and placing containers on the platform and vice versa CHARACTERIZED IN THAT the dedicated mechanical device is a manipulator trolley arranged to travel along two parallel trolley rails , said trolley rails extending from a position above the grid to a position above the platform , wherein the area between the trolley rails defines a staging area comprising a plurality of cells arranged to receive storage bins awaiting retrieval by the manipulator trolley and/or to receive storage bins awaiting retrieval by the handling vehicles .
An industrial truck having at least one operating means, comprising an operating lever, and a resetting apparatus which cooperates with the operating lever and which generates a resetting force for the operating lever as a function of the deflection thereof, wherein a vehicle function is assigned to the operating means, wherein the resetting apparatus generates a neutral position for the operating lever which corresponds to a current activation of the vehicle function, wherein the neutral position is that position of the operating lever in which a force does not have to be applied in order to keep the operating lever in its position, characterized in that in automatic mode the resetting apparatus predetermines the neutral position for a deflection of the operating lever which corresponds to a position of the operating lever when the vehicle function is manually activated, wherein in automatic mode the deflection of the operating lever out of its neutral position corresponds to a manual activation of the assigned vehicle function with a deflection relative to the neutral position. the resetting apparatus generates a neutral position for the operating lever which corresponds to a current activation of the vehicle function, wherein the neutral position is that position of the operating lever in which a force does not have to be applied in order to keep the operating lever in its position, characterized in that in automatic mode the resetting apparatus predetermines the neutral position for a deflection of the operating lever which corresponds to a position of the operating lever when the vehicle function is manually activated, wherein in automatic mode the deflection of the operating lever out of its neutral position corresponds to a manual activation of the assigned vehicle function with a deflection relative to the neutral position.
A method for data synchronization, the method comprising: acquiring , by a target terminal, a locally pre-stored service domain name of a target server room, and transmitting, by the target terminal, a service request to a server in the target server room through the service domain name; executing , by the server in the target server room, a service operation corresponding to the service request, updating, by the server in the target server room, a first database, and generating, by the server in the target server room, a data change message; sending , by the server in the target server room, the data change message to a server in an associated server room of the target server room; and performing , by the server in the associated server room, data synchronization based on the received data change message, wherein performing, by the server in the associated server room, data synchronization based on the received data change message includes: receiving, by the server in the associated server room, the data change message sent by the server in the target server room, and determining, by the server in the associated server room, a terminal identifier of a target terminal corresponding to the data change message; determining, by the server in the associated server room, a target data change thread corresponding to the terminal identifier based on the terminal identifier; and calling, by the server in the associated server room, the target data change thread to perform data synchronization in a second database based on the data change message. acquiring , by a target terminal, a locally pre-stored service domain name of a target server room, and transmitting, by the target terminal, a service request to a server in the target server room through the service domain name; executing , by the server in the target server room, a service operation corresponding to the service request, updating, by the server in the target server room, a first database, and generating, by the server in the target server room, a data change message; sending , by the server in the target server room, the data change message to a server in an associated server room of the target server room; and performing , by the server in the associated server room, data synchronization based on the received data change message, receiving, by the server in the associated server room, the data change message sent by the server in the target server room, and determining, by the server in the associated server room, a terminal identifier of a target terminal corresponding to the data change message; determining, by the server in the associated server room, a target data change thread corresponding to the terminal identifier based on the terminal identifier; and calling, by the server in the associated server room, the target data change thread to perform data synchronization in a second database based on the data change message.
A watch strap strip comprising a reinforcement (2; 2') and a casing made from an elastomer material and molded onto the reinforcement such that the reinforcement (2; 2') is housed in the casing , characterized in that the reinforcement includes a linking element (4; 4') mechanically connecting or mechanically securing: - an element (10; 6; 10') for fixing the strip to a watch case, - to an element (9; 5) for fixing the strip to a closure element, the linking element comprising a blade, the element for fixing the strip to the watch case including a first tube fixed to the blade by soldering or brazing and the element for fixing the strip to the closure element including a second tube fixed to the blade by soldering or brazing. - an element (10; 6; 10') for fixing the strip to a watch case, - to an element (9; 5) for fixing the strip to a closure element,