mhurhangee/ep-ind-claims huggingface dataset:
Electromagnetic force-compensating force-measuring device, comprising - a carrier coil, which is mounted in a permanent magnet arrangement and which during operation conducts a coil current (I S) generated in dependence on force by means of a regulator, and - an integrating analog-to-digital converter (10; 10') arranged to convert an electrical signal (U M), which is representative of the coil current (I S) and which is applied to the measurement signal input of the converter, into a digital output signal, characterised in that the analog-to-digital converter (10; 10') is connected at its reference voltage input (18, 20) with a reference voltage source with two oppositely poled reference voltages (U Ref1, U Ref2) of equal amount which a reference voltage switch connects in alternation with an integrator of the analog-to-digital converter (10, 10'), wherein a ratio of the intervals at which the individual reference voltages (U Ref1, U Ref2) are connected with the integrator within a measurement cycle represents a measure for the instantaneously flowing coil current (I S), wherein the output of the regulator is connected by way of a first heating resistor (R SH), which is thermally coupled with the carrier coil, with the output of a voltage amplifier connected at the input thereof with the output of the reference voltage switch, and that connected downstream of the carrier coil is a current/voltage converter, the output of which is connected with the measuring voltage input of the analog-to-digital converter (10; 10') as well as by way of an inverter and a second heating resistor (R WH) with the input of the voltage amplifier, wherein - the resistance value of the first heating resistor (R SH) is equal to the resistance value of the carrier coil, - the resistance value of the second heating resistor (R WH) is equal to the conversion factor of the current/voltage converter and - the amplification factor of the voltage amplifier is equal to the quotient of the resistance value of the first heating resistor and the resistance value of the second heating resistor. - a carrier coil, which is mounted in a permanent magnet arrangement and which during operation conducts a coil current (I S) generated in dependence on force by means of a regulator, and - an integrating analog-to-digital converter (10; 10') arranged to convert an electrical signal (U M), which is representative of the coil current (I S) and which is applied to the measurement signal input of the converter, into a digital output signal, - the resistance value of the first heating resistor (R SH) is equal to the resistance value of the carrier coil, - the resistance value of the second heating resistor (R WH) is equal to the conversion factor of the current/voltage converter and - the amplification factor of the voltage amplifier is equal to the quotient of the resistance value of the first heating resistor and the resistance value of the second heating resistor.
Portable observation device comprising an observation path, in particular which observation path is unstabilized, for optical targeting of a target object, and comprising an optoelectronic rangefinder for measuring the distance in the direction of the targeting, in particular a laser distance meter with a collimated laser beam as a target axis, comprising: ▪ a transmission unit for emitting a temporal sequence of pulses of optical radiation, ▪ a reception unit for receiving a portion of the optical radiation cast back by the target object and for determining signal information of the cast-back portion of an emitted pulse, and ▪ an electronic evaluation unit, which is embodied in such a way that a distance to the target object determinable on the basis of a signal travel time between emission and reception of the optical radiation (10, 12), wherein the distance is determined incorporating the signal information from a specified minimum number of pulses, which minimum number defines a minimum length of a time window (twd) of the distance measurement, and comprising a trigger which can be actuated manually and the actuation of which causes a start of the time window (twd) of the distance measurement, wherein the observation device comprises a movement sensor for acquiring an instability of a spatial position of the observation device and an actuation unit of the rangefinder, characterized in that the actuation unit is embodied in such a way that the rangefinder is controlled on the basis of spatial position data (24, 25) from the movement sensor in such a way that the pulses counting as part of the minimum number satisfy predetermined criteria in respect of these temporally assigned spatial position data (24, 25), wherein the control actuates the transmission unit, depending on the spatial position data (24, 25) from the movement sensor, in such a way that the pulses of the optical radiation are only emitted in a defined directional range about the targeted target object. ▪ a transmission unit for emitting a temporal sequence of pulses of optical radiation, ▪ a reception unit for receiving a portion of the optical radiation cast back by the target object and for determining signal information of the cast-back portion of an emitted pulse, and ▪ an electronic evaluation unit, which is embodied in such a way that a distance to the target object determinable on the basis of a signal travel time between emission and reception of the optical radiation (10, 12),
A stabilization and advancement system for direct transcatheter aortic valve implantation comprising: an introducer support configured to be coupled to an introducer of a delivery system and configured to be coupled to a first stable object in a procedure room; a cradle mechanism configured to be coupled to a handle of the delivery system and configured to be coupled to a second stable object in the procedure room; an adjustment mechanism (106, 506, 606) configured to be coupled to the delivery system, wherein operation of the adjustment mechanism (106, 506, 606) moves the delivery system distal of the handle in a distal or proximal direction; further comprising a flexible position clamp, wherein the introducer support is configured to be coupled to the flexible position clamp and the flexible position clamp is configured to be coupled to the first stable object. an introducer support configured to be coupled to an introducer of a delivery system and configured to be coupled to a first stable object in a procedure room; a cradle mechanism configured to be coupled to a handle of the delivery system and configured to be coupled to a second stable object in the procedure room; an adjustment mechanism (106, 506, 606) configured to be coupled to the delivery system, wherein operation of the adjustment mechanism (106, 506, 606) moves the delivery system distal of the handle in a distal or proximal direction; further comprising a flexible position clamp, wherein the introducer support is configured to be coupled to the flexible position clamp and the flexible position clamp is configured to be coupled to the first stable object.
A packet processing method, applied to a first service function forwarder proxy SFF proxy, wherein the method comprises: receiving a first packet from a first device, wherein the first packet comprises first identification information and first service function chain SFC header encapsulation information; re-encapsulating the first packet to obtain a second packet; and sending the second packet to a second device based on the first SFC header encapsulation information, characterized in that the method further comprises generating first index information based on the first identification information, and establishing an association relationship between the first index information, the first identification information and the first SFC header encapsulation information by generating an index table that includes one or more pieces of index information and associated data corresponding to each piece of index information, where the associated data includes the SFC header encapsulation information and the first identification information that are associated with the index information; and the second packet comprises the first index information and the first identification information and does not comprise the first SFC header encapsulation information. receiving a first packet from a first device, wherein the first packet comprises first identification information and first service function chain SFC header encapsulation information; re-encapsulating the first packet to obtain a second packet; and sending the second packet to a second device based on the first SFC header encapsulation information, characterized in that the method further comprises generating first index information based on the first identification information, and establishing an association relationship between the first index information, the first identification information and the first SFC header encapsulation information by generating an index table that includes one or more pieces of index information and associated data corresponding to each piece of index information, where the associated data includes the SFC header encapsulation information and the first identification information that are associated with the index information; and the second packet comprises the first index information and the first identification information and does not comprise the first SFC header encapsulation information.
A method in a cache node of a network, the method comprising: monitoring a secure data stream being received at the cache node from a server node; detecting from one or more data chunks of the secure data stream that the secure data stream contains a data object that has been previously received and cached at the cache node; sending a notification signal to the server node, the notification signal indicating that the data object has been previously cached by the cache node, wherein the notification signal comprises one or more corresponding data chunk identifiers, and wherein the server node determines, using the one or more corresponding data chunk identifiers received from the cache node, which encryption header portions relate to one or more remaining data chunks of the data object; receiving one or more encryption header portions from the server node, wherein each encryption header portion of the received one or more encryption header portions relate to a corresponding data chunk that has been previously cached by the cache node, and wherein the server node ceases to stream the one or more remaining data chunks of the data object in response to receiving the notification signal; inserting a previously cached data chunk corresponding to each of the received one or more encryption header portions into the secure data stream; and sending the secure data stream to a client device. monitoring a secure data stream being received at the cache node from a server node; detecting from one or more data chunks of the secure data stream that the secure data stream contains a data object that has been previously received and cached at the cache node; sending a notification signal to the server node, the notification signal indicating that the data object has been previously cached by the cache node, wherein the notification signal comprises one or more corresponding data chunk identifiers, and wherein the server node determines, using the one or more corresponding data chunk identifiers received from the cache node, which encryption header portions relate to one or more remaining data chunks of the data object; receiving one or more encryption header portions from the server node, wherein each encryption header portion of the received one or more encryption header portions relate to a corresponding data chunk that has been previously cached by the cache node, and wherein the server node ceases to stream the one or more remaining data chunks of the data object in response to receiving the notification signal; inserting a previously cached data chunk corresponding to each of the received one or more encryption header portions into the secure data stream; and sending the secure data stream to a client device.
Installation for managing one or more devices connected to an equipment in an environment, wherein the equipment receives and interprets signals from the environment and, based on an interpretation of the signals, transmits control instructions to the devices, the installation comprising at least one sound sensor connected to the equipment, and one or more mechanical members the actuation of each of which, with a view to controlling at least one of the devices, brings about the emission of a characteristic sound, a set of parameters specific to said characteristic sound being listed in a lookup table, as an acoustic signature associated with the mechanical member emitting the characteristic sound, the lookup table thus listing control instructions as a function of said acoustic signatures associated with the mechanical members, the equipment being designed to: - receive sound signals from the environment, - compare each sound signal with the acoustic signatures in the lookup table, - and transmit at least one control instruction for a device on the basis of at least one acoustic signature in the table, identified in a received sound signal, and at least one of the mechanical members comprising at least two protuberances facing one another, the actuation of the member creating friction between the two protuberances, the friction producing a characteristic sound of the member. a set of parameters specific to said characteristic sound being listed in a lookup table, as an acoustic signature associated with the mechanical member emitting the characteristic sound, the lookup table thus listing control instructions as a function of said acoustic signatures associated with the mechanical members, the equipment being designed to: - receive sound signals from the environment, - compare each sound signal with the acoustic signatures in the lookup table, - and transmit at least one control instruction for a device on the basis of at least one acoustic signature in the table, identified in a received sound signal, and at least one of the mechanical members comprising at least two protuberances facing one another, the actuation of the member creating friction between the two protuberances, the friction producing a characteristic sound of the member. - receive sound signals from the environment, - compare each sound signal with the acoustic signatures in the lookup table, - and transmit at least one control instruction for a device on the basis of at least one acoustic signature in the table, identified in a received sound signal, and at least one of the mechanical members comprising at least two protuberances facing one another, the actuation of the member creating friction between the two protuberances, the friction producing a characteristic sound of the member.
An image photographing method, comprising: obtaining, by a terminal device, an image comprising a to-be-photographed target object; determining, by the terminal device, a target region on a preview screen presented in a display interface of the terminal device; and characterized by obtaining, by the terminal device, coordinate positions of pixels of the to-be-photographed target object on the preview screen; and determining, by the terminal device, that feature information of an image in the target region comprises feature information of the to-be-photographed target object, when determining that the coordinate positions of the pixels of the to-be-photographed target object are all in a coordinate range of the target region, and triggering, by the terminal device, photographing; wherein the obtaining, by the terminal device, coordinate positions of pixels of the to-be-photographed target object on the preview screen comprises: obtaining an image matching block from an image on the preview screen, and determining a corresponding position of the image matching block on the preview screen as a coordinate position of the to-be-photographed target object; wherein the image matching block from the image on the preview screen is obtained by using a predetermined matching algorithm; wherein a similarity between feature information of the image matching block and the feature information of the to-be-photographed target object is greater than a preset matching threshold. obtaining, by a terminal device, an image comprising a to-be-photographed target object; determining, by the terminal device, a target region on a preview screen presented in a display interface of the terminal device; and characterized by obtaining, by the terminal device, coordinate positions of pixels of the to-be-photographed target object on the preview screen; and determining, by the terminal device, that feature information of an image in the target region comprises feature information of the to-be-photographed target object, when determining that the coordinate positions of the pixels of the to-be-photographed target object are all in a coordinate range of the target region, and triggering, by the terminal device, photographing; wherein the obtaining, by the terminal device, coordinate positions of pixels of the to-be-photographed target object on the preview screen comprises: obtaining an image matching block from an image on the preview screen, and determining a corresponding position of the image matching block on the preview screen as a coordinate position of the to-be-photographed target object; wherein the image matching block from the image on the preview screen is obtained by using a predetermined matching algorithm; wherein a similarity between feature information of the image matching block and the feature information of the to-be-photographed target object is greater than a preset matching threshold.
A metal luminary configured for attachment to a ceiling of a space to be illuminated, the luminary comprising: a casing (2, 4, 6, 18); a fixture for securing a lighting component to the casing: a wireless transmitter module arranged to transmit RF energy to another device, the wireless transmitter module comprising an antenna located in the casing, whereby the casing constitutes a resonant cavity for RF energy transmitted from the antenna; and a securing component arranged to secure the luminary with respect to a metal ceiling plate and configured to space the casing from the ceiling plate to provide an air-gap between the casing and the ceiling plate, whereby the casing constitutes a resonant cavity for RF energy transmitted from the antenna, the air-gap dimensioned to radiate RF energy from the antenna to the environment externally of the casing. a casing (2, 4, 6, 18); a fixture for securing a lighting component to the casing: a wireless transmitter module arranged to transmit RF energy to another device, the wireless transmitter module comprising an antenna located in the casing, whereby the casing constitutes a resonant cavity for RF energy transmitted from the antenna; and a securing component arranged to secure the luminary with respect to a metal ceiling plate and configured to space the casing from the ceiling plate to provide an air-gap between the casing and the ceiling plate, whereby the casing constitutes a resonant cavity for RF energy transmitted from the antenna, the air-gap dimensioned to radiate RF energy from the antenna to the environment externally of the casing. a wireless transmitter module arranged to transmit RF energy to another device, the wireless transmitter module comprising an antenna located in the casing, whereby the casing constitutes a resonant cavity for RF energy transmitted from the antenna; and a securing component arranged to secure the luminary with respect to a metal ceiling plate and configured to space the casing from the ceiling plate to provide an air-gap between the casing and the ceiling plate, whereby the casing constitutes a resonant cavity for RF energy transmitted from the antenna, the air-gap dimensioned to radiate RF energy from the antenna to the environment externally of the casing.
Hub device, configured so as to communicate with a terminal through a short-distance wireless connection, the hub device furthermore being able to connect to a remote service, the device being configured so as to: /a/ receive a request to access the remote service from the terminal, the access request comprising identification parameters for said service, /b/ store in memory the identification parameters of the received request, in order to send a second access request comprising the identification parameters to the remote service, /c/ upon response from the remote service to the second request, perform a transfer of data in relation to the service, the storage in memory of the identification parameters of the request received from the terminal being temporary, the hub device furthermore being configured so as to delete the identification parameters from memory after detection of a disconnection between the terminal and the hub device. /a/ receive a request to access the remote service from the terminal, the access request comprising identification parameters for said service, /b/ store in memory the identification parameters of the received request, in order to send a second access request comprising the identification parameters to the remote service, /c/ upon response from the remote service to the second request, perform a transfer of data in relation to the service,
An electric motor comprising a rotor mounted on a shaft, a stator disposed around the rotor, said stator comprising a body formed by a lamination stack and winding heads projecting axially on either side of the body of the stator, a front bearing and a rear bearing connected to each other, said front and rear bearings (14, 15) forming an inner cavity in which the rotor and the stator are housed, in which the rear bearing is bell-shaped and covers a cylindrical part of the front bearing extending axially from an end wall of said front bearing, the rear bearing forming with the front bearing an inner channel for the circulation of a first cooling fluid inside which a first cooling fluid circulates, said first cooling fluid penetrating inside the inner channel via a first fluid inlet channel formed radially through the rear bearing and exiting the inner channel via a first fluid outlet channel formed radially through the rear bearing, characterized in that the front bearing has a projecting rib extending radially towards an inner face of the rear bearing, said rib forming a separator for the inner channel, said first fluid inlet and outlet channels (26, 27) emerging respectively on either side of said rib, and in that the electric motor is also cooled by a second cooling fluid circulating in the lamination stack of the stator and on the winding heads of the stator, said second cooling fluid being supplied through at least one second fluid inlet channel, said at least one second fluid inlet channel being at least partially formed through the rib of the front bearing.