mhurhangee/patent-ind-claim-en huggingface dataset:
An ocular surgical apparatus 100 comprising: a handpiece 20 configured to receive an interchangeable tip 24 Z ; an irrigation line 32 configured to transport fluid to the interchangeable tip, the irrigation line being connected to an irrigation source 30 ; an aspiration line 42 configured to transport fluid away from the interchangeable tip, the aspiration line connected to an aspiration source 40 ; a sensor system 52 configured to determine the pressure of fluid flowing in the aspiration line; and a controller 60 configured to determine the flow rate of fluid flowing through the apparatus, and further configured to receive information from the sensor system regarding the pressure of fluid flowing in the aspiration line; and wherein the controller is further configured to compare the flow rate of the fluid flowing through the apparatus to known flow rate information of standard tips, and configured to compare the pressure information received from the sensor system to known pressure information of standard tips, and further configured to determine the type of interchangeable tip attached to the handpiece, and wherein the controller is configured to adjust one or more settings of the apparatus based on the type of interchangeable tip without user input. a handpiece 20 configured to receive an interchangeable tip 24 Z ; an irrigation line 32 configured to transport fluid to the interchangeable tip, the irrigation line being connected to an irrigation source 30 ; an aspiration line 42 configured to transport fluid away from the interchangeable tip, the aspiration line connected to an aspiration source 40 ; a sensor system 52 configured to determine the pressure of fluid flowing in the aspiration line; and a controller 60 configured to determine the flow rate of fluid flowing through the apparatus, and further configured to receive information from the sensor system regarding the pressure of fluid flowing in the aspiration line; and wherein the controller is further configured to compare the flow rate of the fluid flowing through the apparatus to known flow rate information of standard tips, and configured to compare the pressure information received from the sensor system to known pressure information of standard tips, and further configured to determine the type of interchangeable tip attached to the handpiece, and wherein the controller is configured to adjust one or more settings of the apparatus based on the type of interchangeable tip without user input.
A heat transfer panel comprising a body (i) of structural support material having a surface formed with an array of interconnecting channels into which a flexible fluid-conducting pipe (P) can be inserted, and in which a heat-conducting layer (20; 21) is applied to said surface spanning the channels prior to use, said layer being provided with fissure lines (12; 13) extending along the channels whereby the layer can be divided to allow insertion of a pipe into selected channels, wherein the fissure lines follow a meandering path along the channels, varying in distance from the margins (5; 6) of the underlying channel.
A high-speed switch comprising: current interrupting means connected to a main circuit, wherein the current interrupting means includes a movable electrode and a fixed electrode for opening and closing the main circuit; a driving assembly including: a repulsive coil for providing a driving force to move the movable electrode of the current interrupting means, and a repulsive plate facing the repulsive coil; and a guide rod assembly for connecting the movable electrode of the current interrupting means to the repulsive plate, wherein the guide rod assembly reciprocates vertically together with a vertical movement of the repulsive plate, wherein the high-speed switch is characterized by a state-maintaining assembly configured to control a movement of the guide rod assembly, wherein a latch groove is defined in the guide rod assembly , wherein the state-maintaining assembly includes: a latch pin whose end corresponds to the latch groove; a latch elastic member for pressing the latch pin toward the guide rod assembly such that the end of the latch pin is inserted into the latch groove; and a latch coil wound around an outer circumferential face of the latch pin to provide a driving force for releasing the latch pin from the latch groove. current interrupting means connected to a main circuit, wherein the current interrupting means includes a movable electrode and a fixed electrode for opening and closing the main circuit; a driving assembly including: a repulsive coil for providing a driving force to move the movable electrode of the current interrupting means, and a repulsive plate facing the repulsive coil; and a guide rod assembly for connecting the movable electrode of the current interrupting means to the repulsive plate, wherein the guide rod assembly reciprocates vertically together with a vertical movement of the repulsive plate, wherein the high-speed switch is characterized by a state-maintaining assembly configured to control a movement of the guide rod assembly, wherein a latch groove is defined in the guide rod assembly , wherein the state-maintaining assembly includes: a latch pin whose end corresponds to the latch groove; a latch elastic member for pressing the latch pin toward the guide rod assembly such that the end of the latch pin is inserted into the latch groove; and a latch coil wound around an outer circumferential face of the latch pin to provide a driving force for releasing the latch pin from the latch groove. a latch pin whose end corresponds to the latch groove; a latch elastic member for pressing the latch pin toward the guide rod assembly such that the end of the latch pin is inserted into the latch groove; and a latch coil wound around an outer circumferential face of the latch pin to provide a driving force for releasing the latch pin from the latch groove.
A detection probe oligomer for detecting a Megasphaera sp. target nucleic acid, wherein said detection probe oligomer comprises a target-hybridizing sequence that is from about 14 to about 40 nucleotides in length and is configured to specifically hybridize to a target sequence contained within SEQ ID NO:45 from about nucleotide position 290 to about nucleotide position 334.
A communications device for transmitting data to or receiving data from a mobile communications network , the mobile communications network including infrastructure equipment , the infrastructure equipment providing a wireless access interface for transmitting signals to or receiving signals from the communications device, the communications device comprising a transmitter for transmitting signals representing the data via a serving wireless access interface provided by a selected infrastructure equipment to the mobile communications network, a receiver for receiving signals representing the data via the serving wireless access interface provided by the selected infrastructure equipment, a controller for controlling the transmitter and the receiver to select one of the wireless access interfaces of the infrastructure equipment as the serving wireless access interface, wherein the selected infrastructure equipment and/or one or more neighbouring infrastructure equipment provide an enhanced wireless access interface operating in an enhanced coverage mode and providing a coverage area for transmitting or receiving signals which is larger than a coverage area provided by a wireless access interface operating in a normal coverage mode, and the controller is configured in combination with the transmitter and the receiver to measure a signal strength provided from each of the one or more wireless access interfaces provided from the selected infrastructure equipment and the one or more neighbouring infrastructure equipment, to generate a signal reception metric for each of the wireless access interfaces provided by the one or more neighbouring infrastructure equipment and for each of the wireless access interfaces provided by the selected infrastructure equipment based on a difference between the measured signal strength and a predetermined minimum signal strength level associated with each of the wireless access interfaces, wherein the signal reception metric for the enhanced wireless access interface provided by the selected infrastructure equipment or the one or more neighbouring infrastructure equipment is derived using a predetermined minimum signal strength level, which is lower than the predetermined minimum signal strength level for the wireless access interface provided by the selected infrastructure equipment or the one or more neighbouring infrastructure equipment which is operating in the normal coverage mode, to select, as a new serving wireless access interface, the wireless access interface operating in the enhanced coverage mode if the signal reception metric of the current serving wireless access interface falls below a lower threshold and the signal reception metric of the wireless access interface operating in the enhanced coverage mode is above an upper threshold, and to reselect, as a new serving wireless access interface, a high priority wireless access interface operating in the normal coverage mode of a neighbouring infrastructure equipment if the signal reception metric of the high priority wireless access interface is above the upper threshold.
An in vitro method for increasing the secretion levels of recombinant human IL-2 and its derived muteins in a host, without affecting its biological functions and the selective modulation of its interactions with the receptor subunits, characterized by the introduction of a single non-conservative mutation at position 35 of its primary sequence selected from the group consisting of: - K35E, - K35D and - K35Q and wherein said muteins are selected from the group consisting of: SEQ ID NO. 1, SEQ ID NO. 4, SEQ ID NO. 5, SEQ ID NO. 6, SEQ ID NO. 8, SEQ ID NO. 9, SEQ ID NO. 10, SEQ ID NO. 11, SEQ ID NO. 12, SEQ ID NO. 13, SEQ ID NO. 14, SEQ ID NO. 15, SEQ ID NO. 16, SEQ ID NO. 17 and SEQ ID NO. 18 and wherein the host is selected from the group comprising: - E. coli, - mammalian cells and - yeasts. - K35E, - K35D and - K35Q SEQ ID NO. 1, SEQ ID NO. 4, SEQ ID NO. 5, SEQ ID NO. 6, SEQ ID NO. 8, SEQ ID NO. 9, SEQ ID NO. 10, SEQ ID NO. 11, SEQ ID NO. 12, SEQ ID NO. 13, SEQ ID NO. 14, SEQ ID NO. 15, SEQ ID NO. 16, SEQ ID NO. 17 and SEQ ID NO. 18 - E. coli, - mammalian cells and - yeasts.
A method comprising: receiving, by a Root Authority (RA) device, a command to create a Module, wherein the Module is a first application that securely provisions a data asset to a target device in an operation phase of a manufacturing lifecycle of the target device in response to the command, executing a Module Template by the Root Authority (RA) device to generate the Module, wherein the Module Template is a second application that defines a set of instructions for the Module and the data asset; deploying the Module to an Appliance device , wherein the set of instructions of the Module, when executed by the Appliance device , results in a secure construction of a sequence of operations to securely provision the data asset to the target device , wherein the Appliance device is configured to distribute the data asset to a cryptographic manager core of the target device and wherein the target device is a monolithic integrated circuit that is separate from the appliance device and comprises a cryptographic manager core. receiving, by a Root Authority (RA) device, a command to create a Module, wherein the Module is a first application that securely provisions a data asset to a target device in an operation phase of a manufacturing lifecycle of the target device in response to the command, executing a Module Template by the Root Authority (RA) device to generate the Module, wherein the Module Template is a second application that defines a set of instructions for the Module and the data asset; deploying the Module to an Appliance device , wherein the set of instructions of the Module, when executed by the Appliance device , results in a secure construction of a sequence of operations to securely provision the data asset to the target device , wherein the Appliance device is configured to distribute the data asset to a cryptographic manager core of the target device and wherein the target device is a monolithic integrated circuit that is separate from the appliance device and comprises a cryptographic manager core.
An endodontic file comprising: a tip , a shank and a working length , that extends from a tip region , which is adjacent to the tip , to a shank region , which is adjacent to the shank , wherein the working length includes at least one helical region adjacent to a cutting edge , the cutting edge defined by a rake angle on one side of the cutting edge and a clearance angle on the opposite side of the cutting edge , wherein the taper configuration of the file includes at least two different rates of taper, the taper configuration of the file arranged such that a rate of taper closer to the shank is smaller than a rate of taper closer to the tip, characterized in that the rake angle varies between the tip region and the shank region . a tip , a shank and a working length , that extends from a tip region , which is adjacent to the tip , to a shank region , which is adjacent to the shank , wherein the working length includes at least one helical region adjacent to a cutting edge , the cutting edge defined by a rake angle on one side of the cutting edge and a clearance angle on the opposite side of the cutting edge , wherein the taper configuration of the file includes at least two different rates of taper, the taper configuration of the file arranged such that a rate of taper closer to the shank is smaller than a rate of taper closer to the tip, characterized in that the rake angle varies between the tip region and the shank region .
A method of wireless communication, comprising: receiving a downlink grant at a mobile device (120; 400; 70); detecting, by the mobile device (120; 400; 70), a channel state information, CSI, trigger in the downlink grant; detecting a collision of the CSI feedback triggered by the CSI trigger in the downlink grant with other uplink signals scheduled for the mobile device; in response to the collisions, multiplexing the CSI feedback with the other uplink signals; and transmitting the CSI feedback by the mobile device (120; 400; 70) in response to the CSI trigger; wherein when the mobile device has uplink data traffic that can be scheduled using an uplink grant receiving an uplink grant at the mobile device with a CSI trigger; and instead of transmitting the CSI feedback in response to the CSI trigger in the downlink grant, scheduling the CSI feedback in response to the CSI trigger in the uplink grant. receiving a downlink grant at a mobile device (120; 400; 70); detecting, by the mobile device (120; 400; 70), a channel state information, CSI, trigger in the downlink grant; detecting a collision of the CSI feedback triggered by the CSI trigger in the downlink grant with other uplink signals scheduled for the mobile device; in response to the collisions, multiplexing the CSI feedback with the other uplink signals; and transmitting the CSI feedback by the mobile device (120; 400; 70) in response to the CSI trigger; wherein when the mobile device has uplink data traffic that can be scheduled using an uplink grant receiving an uplink grant at the mobile device with a CSI trigger; and instead of transmitting the CSI feedback in response to the CSI trigger in the downlink grant, scheduling the CSI feedback in response to the CSI trigger in the uplink grant.
Valve having a valve housing and a valve piston guided so as to be longitudinally displaceable therein, a pressure port and a tank port , wherein the valve piston which, under the action of a valve spring , blocks a fluid-conducting connection between the pressure port and the tank port in the valve housing in its closed position and opens it in an open position, and which has an orifice that establishes a permanent fluid connection on the pressure port side to a spring chamber with the valve spring , and having a load-sensing port in the valve housing which opens out into the spring chamber , wherein a pressure-reducing device is accommodated in the valve housing , which pressure-reducing device connects the spring chamber of the valve piston to the tank port in a fluid-conducting manner when there is an absence of pressure at the load-sensing port , characterised in that the pressure-reducing device is accommodated in a screw-in housing which can be screwed in via a free end face of the valve housing which opposes the other end face with the pressure port .
An apparatus for cleaning a back surface of a substrate (W), comprising: a substrate holder configured to rotate the substrate (W) while holding the substrate (W) with the back surface facing upward; a scrub cleaning tool configured to be rotatable; a two-fluid nozzle disposed above the substrate holder , the two-fluid nozzle being configured to generate a two-fluid jet, which is a mixture of a liquid and a gas and to deliver the two-fluid jet to the back surface of the substrate (W); and a housing defining a cleaning chamber in which the substrate holder , the scrub cleaning tool , and the two-fluid nozzle are located. a substrate holder configured to rotate the substrate (W) while holding the substrate (W) with the back surface facing upward; a scrub cleaning tool configured to be rotatable; a two-fluid nozzle disposed above the substrate holder , the two-fluid nozzle being configured to generate a two-fluid jet, which is a mixture of a liquid and a gas and to deliver the two-fluid jet to the back surface of the substrate (W); and a housing defining a cleaning chamber in which the substrate holder , the scrub cleaning tool , and the two-fluid nozzle are located.
A system comprising: a catheter configured to be inserted into a body part of a living subject, and comprising a distal end ; at least one position sensor configured to provide at least one position signal indicative of a position of the distal end of the catheter over time; a display ; a first smoothing filter configured to provide at least one first filtered position signal responsively to the at least one position signal and a first filtering level; a second smoothing filter configured to provide at least one second filtered position signal responsively to the at least one position signal and a second filtering level, wherein the second filtering level provides more smoothing than the first filtering level; and processing circuitry configured to: find first position coordinates of the distal end responsively to the at least one first filtered position signal; find second position coordinates of the distal end responsively to the at least one second filtered position signal; generate, and render to the display, an anatomical map of the body part responsively to the second position coordinates of the distal end; and render a representation of the distal end of the catheter to the display while showing movement of the distal end of the catheter responsively to the first position coordinates. a catheter configured to be inserted into a body part of a living subject, and comprising a distal end ; at least one position sensor configured to provide at least one position signal indicative of a position of the distal end of the catheter over time; a display ; a first smoothing filter configured to provide at least one first filtered position signal responsively to the at least one position signal and a first filtering level; a second smoothing filter configured to provide at least one second filtered position signal responsively to the at least one position signal and a second filtering level, wherein the second filtering level provides more smoothing than the first filtering level; and processing circuitry configured to: find first position coordinates of the distal end responsively to the at least one first filtered position signal; find second position coordinates of the distal end responsively to the at least one second filtered position signal; generate, and render to the display, an anatomical map of the body part responsively to the second position coordinates of the distal end; and render a representation of the distal end of the catheter to the display while showing movement of the distal end of the catheter responsively to the first position coordinates. find first position coordinates of the distal end responsively to the at least one first filtered position signal; find second position coordinates of the distal end responsively to the at least one second filtered position signal; generate, and render to the display, an anatomical map of the body part responsively to the second position coordinates of the distal end; and render a representation of the distal end of the catheter to the display while showing movement of the distal end of the catheter responsively to the first position coordinates.
A composition comprising: a nano-composite structure having (a) a fibrous amorphous silica component, said fibrous amorphous silica component provided in three-dimensional haystack configuration that presents a fibrous structure having interstitial spaces between amorphous silica fibers with inner layers and outer layers with irregular interlacing amorphous silica fibers or filaments which are fixed in relation to each other; (b) a crystalline calcium carbonate component, said crystalline calcium carbonate component comprising aragonite needle structures, said aragonite needle structures arising from said fibrous amorphous silica component; and (c) wherein said nano-composite structure has a major axis of length L in the range from 10 microns to 40 microns, and a surface area of from 40 meters squared per gram to 200 meters squared per gram. (a) a fibrous amorphous silica component, said fibrous amorphous silica component provided in three-dimensional haystack configuration that presents a fibrous structure having interstitial spaces between amorphous silica fibers with inner layers and outer layers with irregular interlacing amorphous silica fibers or filaments which are fixed in relation to each other; (b) a crystalline calcium carbonate component, said crystalline calcium carbonate component comprising aragonite needle structures, said aragonite needle structures arising from said fibrous amorphous silica component; and (c) wherein said nano-composite structure has a major axis of length L in the range from 10 microns to 40 microns, and a surface area of from 40 meters squared per gram to 200 meters squared per gram.