mhurhangee/ep-ind-claims huggingface dataset:
An aspiration and irrigation system for irrigating the eye and aspirating fluid from the eye during an ocular surgery comprising: a phacoemulsification hand piece comprising a graspable body having a distal end and a proximal end; an aspiration conduit configured to transport an aspiration fluid away from a surgical site; an irrigation conduit configured to transport an irrigation fluid towards the surgical site; a pump disposed within the hand piece, wherein at least a portion of the pump interfaces with the aspiration conduit and the irrigation conduit, such that upon activation of the pump, the irrigation fluid within the irrigation conduit flows in a direction towards the surgical site, and the aspiration fluid within the aspiration conduit flows in a direction away from the surgical site; an aspiration valve disposed within the hand piece in the aspiration conduit between the pump and a drain reservoir, the aspiration valve configured to control a flow rate of aspiration fluid within the aspiration conduit; and a pressure sensor detecting an aspiration pressure at or along the aspiration conduit; and a controller in communication with the pump, the aspiration valve, and the pressure sensor, wherein the controller is configured to control the operation of the pump and the aspiration valve based on information from the pressure sensor. a phacoemulsification hand piece comprising a graspable body having a distal end and a proximal end; an aspiration conduit configured to transport an aspiration fluid away from a surgical site; an irrigation conduit configured to transport an irrigation fluid towards the surgical site; a pump disposed within the hand piece, wherein at least a portion of the pump interfaces with the aspiration conduit and the irrigation conduit, such that upon activation of the pump, the irrigation fluid within the irrigation conduit flows in a direction towards the surgical site, and the aspiration fluid within the aspiration conduit flows in a direction away from the surgical site; an aspiration valve disposed within the hand piece in the aspiration conduit between the pump and a drain reservoir, the aspiration valve configured to control a flow rate of aspiration fluid within the aspiration conduit; and a pressure sensor detecting an aspiration pressure at or along the aspiration conduit; and a controller in communication with the pump, the aspiration valve, and the pressure sensor, wherein the controller is configured to control the operation of the pump and the aspiration valve based on information from the pressure sensor.
A mobile terminal comprising: one of: i) a modem timer; and a modem processor, the modem processor configured to hold modem processor to application processor data until expiration of the modem timer; or ii) a means for determining an amount of data; and a modem processor, the modem processor configured to hold modem processor to application processor data until the amount of data held exceeds a predefined threshold of data; an application processor; and an interconnectivity bus communicatively coupling the application processor to the modem processor, the interconnectivity bus having an active mode and a sleep mode; wherein: the application processor is configured to hold application processor to modem processor data until triggered by receipt of the modem processor to application processor data from the modem processor through the interconnectivity bus after which the application processor to modem processor data is sent to the modem processor through the interconnectivity bus responsive to the receipt of the modem processor to application processor data from the modem processor through the interconnectivity bus during a timeslot of the interconnectivity bus before the interconnectivity bus transitions from the active mode to the sleep mode and wherein there is no further transition between the active mode and the sleep mode during the timeslot of the interconnectivity bus. one of: i) a modem timer; and a modem processor, the modem processor configured to hold modem processor to application processor data until expiration of the modem timer; or ii) a means for determining an amount of data; and a modem processor, the modem processor configured to hold modem processor to application processor data until the amount of data held exceeds a predefined threshold of data; i) a modem timer; and a modem processor, the modem processor configured to hold modem processor to application processor data until expiration of the modem timer; or ii) a means for determining an amount of data; and a modem processor, the modem processor configured to hold modem processor to application processor data until the amount of data held exceeds a predefined threshold of data; an application processor; and an interconnectivity bus communicatively coupling the application processor to the modem processor, the interconnectivity bus having an active mode and a sleep mode; wherein: the application processor is configured to hold application processor to modem processor data until triggered by receipt of the modem processor to application processor data from the modem processor through the interconnectivity bus after which the application processor to modem processor data is sent to the modem processor through the interconnectivity bus responsive to the receipt of the modem processor to application processor data from the modem processor through the interconnectivity bus during a timeslot of the interconnectivity bus before the interconnectivity bus transitions from the active mode to the sleep mode and wherein there is no further transition between the active mode and the sleep mode during the timeslot of the interconnectivity bus.
A method of encoding time series data, the method comprising: receiving a plurality of data packets of time series data; and sequentially encoding the plurality of data packets, wherein sequentially encoding the plurality of data packets comprises, for a data packet among the plurality of data packets: obtaining a reference data packet for the data packet; obtaining a mask packet indicative of which of the bits in the data packet are predictable and which of the bits in the data packet are not predictable; obtaining change history data indicative of previously changed bits of the mask packet; determining an updated mask packet based on the mask packet, the data packet, and the reference data packet; determining updated change history data based on the change history data, the mask packet, and the updated mask packet; determining, as unpredictable bits, all those bits of the data packet that are indicated as not predictable by the updated mask packet; and generating an encoded data packet including a representation of the updated change history data and a representation of values of the unpredictable bits of the data packet. receiving a plurality of data packets of time series data; and sequentially encoding the plurality of data packets, wherein sequentially encoding the plurality of data packets comprises, for a data packet among the plurality of data packets: obtaining a reference data packet for the data packet; obtaining a mask packet indicative of which of the bits in the data packet are predictable and which of the bits in the data packet are not predictable; obtaining change history data indicative of previously changed bits of the mask packet; determining an updated mask packet based on the mask packet, the data packet, and the reference data packet; determining updated change history data based on the change history data, the mask packet, and the updated mask packet; determining, as unpredictable bits, all those bits of the data packet that are indicated as not predictable by the updated mask packet; and generating an encoded data packet including a representation of the updated change history data and a representation of values of the unpredictable bits of the data packet. obtaining a reference data packet for the data packet; obtaining a mask packet indicative of which of the bits in the data packet are predictable and which of the bits in the data packet are not predictable; obtaining change history data indicative of previously changed bits of the mask packet; determining an updated mask packet based on the mask packet, the data packet, and the reference data packet; determining updated change history data based on the change history data, the mask packet, and the updated mask packet; determining, as unpredictable bits, all those bits of the data packet that are indicated as not predictable by the updated mask packet; and generating an encoded data packet including a representation of the updated change history data and a representation of values of the unpredictable bits of the data packet.
An electronics package comprising: a wafer level chip scale package (WLCSP) 20 including a die substrate containing electronic circuits and having a top surface, a bottom surface, and side surfaces between the top and bottom surfaces, characterised by: a single layer of encapsulation material (62, 63) thinner than the substrate and coveting the top and bottom and side surfaces; a plurality of locking features fabricated in at least one of the top surface and the bottom surface of the wafer die substrate for providing a mechanical locking connection to improve adhesion between the at least one of the top surface and the bottom surface and the single layer of encapsulation material (62, 63); and a plurality of circuit contacts distributed in the single layer of encapsulation material (62, 63) about the bottom surface of the die substrate for electrically coupling the substrate electronic circuits to external electronic circuits. a single layer of encapsulation material (62, 63) thinner than the substrate and coveting the top and bottom and side surfaces; a plurality of locking features fabricated in at least one of the top surface and the bottom surface of the wafer die substrate for providing a mechanical locking connection to improve adhesion between the at least one of the top surface and the bottom surface and the single layer of encapsulation material (62, 63); and a plurality of circuit contacts distributed in the single layer of encapsulation material (62, 63) about the bottom surface of the die substrate for electrically coupling the substrate electronic circuits to external electronic circuits.
A hot rolled bar or hot rolled wire rod comprising: a chemical composition including, by mass%, C: 0.05 to 0.30%, Si: 0.30 to 0.60%, Mn: 0.40 to 1.0%, S: 0.008 to less than 0.040%, Cr: 1.60 to 2.00%, Mo: 0 to 0.1% or less, Al: 0.025 to 0.05%, N: 0.010 to 0.025%, Ti: 0 to 0.003%, Bi: 0.0001 to 0.0050%, optionally further comprising Nb: 0.08% or less and/or one or more elements selected from Cu: 0.40% or less and Ni: 0.80% or less, and a remainder including Fe and impurities, wherein amounts of P and O in the impurities are respectively P: 0.025% or less, and O: 0.002% or less; wherein a microstructure is ferrite-pearlite or ferrite-pearlite-bainite, and an Expression is satisfied, 1.70 ≤ Cr + 2 × Mo ≤ 2.10 where, an element symbol in the Expression represents an amount of a corresponding element by mass%. a chemical composition including, by mass%, C: 0.05 to 0.30%, Si: 0.30 to 0.60%, Mn: 0.40 to 1.0%, S: 0.008 to less than 0.040%, Cr: 1.60 to 2.00%, Mo: 0 to 0.1% or less, Al: 0.025 to 0.05%, N: 0.010 to 0.025%, Ti: 0 to 0.003%, Bi: 0.0001 to 0.0050%, optionally further comprising Nb: 0.08% or less and/or one or more elements selected from Cu: 0.40% or less and Ni: 0.80% or less, C: 0.05 to 0.30%, Si: 0.30 to 0.60%, Mn: 0.40 to 1.0%, S: 0.008 to less than 0.040%, Cr: 1.60 to 2.00%, Mo: 0 to 0.1% or less, Al: 0.025 to 0.05%, N: 0.010 to 0.025%, Ti: 0 to 0.003%, Bi: 0.0001 to 0.0050%, optionally further comprising Nb: 0.08% or less and/or one or more elements selected from Cu: 0.40% or less and Ni: 0.80% or less, and a remainder including Fe and impurities, wherein amounts of P and O in the impurities are respectively P: 0.025% or less, and O: 0.002% or less; wherein amounts of P and O in the impurities are respectively P: 0.025% or less, and O: 0.002% or less; wherein a microstructure is ferrite-pearlite or ferrite-pearlite-bainite, and an Expression is satisfied, 1.70 ≤ Cr + 2 × Mo ≤ 2.10 where, an element symbol in the Expression represents an amount of a corresponding element by mass%.
Control unit to control a valve pin of a fuel injector, the control unit comprising a control chamber to exert a predefined pressure force onto a control piston to move the valve pin with a predefined stroke, and a control valve unit to control the pressure force exerted by the control chamber, the control valve unit comprising a high pressure area and a low pressure area being connected to each other via a connecting channel, the control valve unit further comprising a valve assembly to block and unblock the connecting channel upon actuation of the valve assembly, wherein in the high pressure area a valve chamber is arranged comprising a valve seat and a valve cluster of the valve assembly, wherein in the low pressure area a valve piston chamber is arranged comprising a valve body of the valve assembly and a valve piston to actuate the valve assembly, wherein a spring is provided to bias the valve cluster onto the valve seat, wherein the spring is arranged in the valve piston chamber in the low pressure area, characterized in that the spring comprises a tapered shape, wherein the spring having its largest diameter at a first end portion of the valve body next to the valve cluster.
Device for maintaining lawns, which can be arranged on a mobile unit and comprises a digital camera which can be directed at the lawn, a control device and at least one tool (3, 5) which can be actuated by the control device and can be lowered by a motor to the lawn, the images from the digital camera being fed to an algorithm implemented in the control device for carrying out object recognition, so that the control device lowers the tool (3, 5) when an object is detected in order to carry out a work step on the object, characterized in that the tool (3, 5) is arranged in a detection range of the camera when in the lowered state, wherein a constant image coordinate of the camera image is assigned to a contact point of the tool (3, 5) with the lawn.
Device for attenuating an exhaust-gas noise comprising a hollow chamber which has an inlet for the exhaust gas and an absorber section, wherein the hollow chamber is designed to be closed at the end spaced apart from the inlet and the hollow chamber has a passage to the absorber section between the closed end and the inlet, wherein the absorber section extends transversely to the passage in such a manner that the exhaust gas is deflected behind the passage by 90° and is conducted at least partially along the hollow chamber, characterized in that the passage is configured in a region of the hollow chamber which is at a distance from the end spaced apart from the inlet, which distance is between 1/3 and 2/3 of the distance between the inlet and the spaced-apart end, and if the hollow chamber has multiple passages to the absorber section between the closed end and the inlet, all passages are configured in a region of the hollow chamber, which are at a distance from the end spaced apart from the inlet, which distance is between 1/3 and 2/3 of the distance between the inlet and the spaced-apart end.
A process for recovering industrial tanks comprising the steps of: - prearranging a tank to recover, said tank comprising: - an plastic composite intermediate bulk container, or "plastic composite IBC", arranged, in use, to contain liquid, said plastic composite IBC having parallelepiped shape and comprising a bottom face, a top face and four side walls; - a pallet arranged to support said plastic composite IBC; - a cage arranged to wrap said plastic composite IBC; - removing said cage and said pallet; - cutting said plastic composite IBC obtaining planar portions; - cleaning said planar portions from possible residuals of said liquid; - grinding said planar portions obtaining a plurality of residual scales of plastic composite; said cutting step of said plastic composite IBC being carried out by a cutting machine, said cutting machine comprising at least one electric saw arranged to cut said plastic composite IBC, said process characterized in that said cutting step comprises the steps of: - arranging said plastic composite IBC in said cutting machine; - horizontal cutting along a curve γ 1 joining said bottom face with said side walls; - vertical cutting along curves λ joining said side walls; - horizontal cutting along a curve γ 2 joining said top face with said side walls. - prearranging a tank to recover, said tank comprising: - an plastic composite intermediate bulk container, or "plastic composite IBC", arranged, in use, to contain liquid, said plastic composite IBC having parallelepiped shape and comprising a bottom face, a top face and four side walls; - a pallet arranged to support said plastic composite IBC; - a cage arranged to wrap said plastic composite IBC; - an plastic composite intermediate bulk container, or "plastic composite IBC", arranged, in use, to contain liquid, said plastic composite IBC having parallelepiped shape and comprising a bottom face, a top face and four side walls; - a pallet arranged to support said plastic composite IBC; - a cage arranged to wrap said plastic composite IBC; - removing said cage and said pallet; - cutting said plastic composite IBC obtaining planar portions; - cleaning said planar portions from possible residuals of said liquid; - grinding said planar portions obtaining a plurality of residual scales of plastic composite; - arranging said plastic composite IBC in said cutting machine; - horizontal cutting along a curve γ 1 joining said bottom face with said side walls; - vertical cutting along curves λ joining said side walls; - horizontal cutting along a curve γ 2 joining said top face with said side walls.
A memory comprising: an array of multi-gate memory cells, each cell including two independently biased gates; an address decoder; a control gate word line driver circuit coupled to the address decoder and coupled to a sector of memory cells of the array, the control gate word line driver circuit is controllable to place an associated control gate word line (CGWLO) coupled to the control gate word line driver circuit and coupled to the sector in a floating state during a read operation in a low power mode of operation where the sector is a non selected sector; a plurality of control gate word line driver circuits (115, 117, 119, and 121) including the control gate word line driver circuit, each control gate word line driver circuit of the plurality is coupled to an associated sector of memory cells of the array via an associated control gate word line of a plurality of control gate word lines, during a read operation in a low power mode of operation, each of the control gate word line driver circuit of the plurality of control gate word line driver circuits coupled to a non selected sector of the array places its associated control gate word line in a floating state and a control gate word line driver circuit of the plurality coupled to a selected sector of the array applies a read voltage (VREAD) to its associated control gate word line of the plurality of control gate word lines; characterised in that during a read operation in a full power mode of operation, each of the control gate word line driver circuits of the plurality of control gate word line driver circuits coupled to selected and non selected sectors of the array is configurated to apply the read voltage to its associated control gate word line of the plurality of control gate word lines.
An implantable device for evaluating autonomic cardiovascular drive, comprising: an implantable neurostimulator comprising a pulse generator configured to deliver electrical therapeutic stimulation tuned to restore autonomic balance through continuously-cycling, intermittent and periodic electrical pulses delivered in a manner that results in creation and propagation (in both afferent and efferent directions) of action potentials within neuronal fibers comprising a cervical vagus nerve (15, 16, 61) of a patient in continuous alternating cycles of stimuli application and stimuli inhibition and configured to deliver the electrical therapeutic stimulation according to stored stimulation parameters comprising a pulse width falling within the range of 100 to 250 μsec, an output current falling within the range of 0.02 to 50 mA, and a signal frequency at least being 10 Hz to about 20 Hz; a cervical vagus nerve stimulation therapy lead electrically coupled to the pulse generator and terminated by at least one electrode through which the therapeutic electrical stimulation is delivered to the patient's cervical vagus nerve (15, 16, 61). an implantable neurostimulator comprising a pulse generator configured to deliver electrical therapeutic stimulation tuned to restore autonomic balance through continuously-cycling, intermittent and periodic electrical pulses delivered in a manner that results in creation and propagation (in both afferent and efferent directions) of action potentials within neuronal fibers comprising a cervical vagus nerve (15, 16, 61) of a patient in continuous alternating cycles of stimuli application and stimuli inhibition and configured to deliver the electrical therapeutic stimulation according to stored stimulation parameters comprising a pulse width falling within the range of 100 to 250 μsec, an output current falling within the range of 0.02 to 50 mA, and a signal frequency at least being 10 Hz to about 20 Hz; a cervical vagus nerve stimulation therapy lead electrically coupled to the pulse generator and terminated by at least one electrode through which the therapeutic electrical stimulation is delivered to the patient's cervical vagus nerve (15, 16, 61).
Support structure for a front face module of a motor vehicle, said support structure comprising a lower crossmember, a first lateral upright, a second lateral upright and an upper crossmember, the support structure comprising a first support arm (40, 140, 240) and a second support arm (50, 150, 250), these support arms being received within the support structure, the first support arm (40, 140, 240) being connected via its first end (41, 141, 241) to the first lateral upright, and via its second end (42, 142, 242) to the upper crossmember, and the second support arm (50, 150, 250) being connected via its first end (51, 151, 251) to the second lateral upright, and via its second end (52, 152, 252) to the upper crossmember, characterized in that the upper crossmember comprises a reinforcing plate, the second end of the first support arm (42, 142, 242) and the second end of the second support arm (52, 152, 252) being connected to said reinforcing plate.
An antimicrobial polymer coating composition comprising: a polyhedral oligomeric silsesquioxane having a cage structure substituted with one or more dialkylsilane epoxide groups; a thermal initiator; and a photosensitizer. a polyhedral oligomeric silsesquioxane having a cage structure substituted with one or more dialkylsilane epoxide groups; a thermal initiator; and a photosensitizer.