mhurhangee/ep-ind-claims huggingface dataset:
A system for providing mechanical ventilation to a patient, the system comprising: a mechanical ventilator configured for pneumatic connection to a patient in order to deliver medical gas to the patient; at least one physiological sensor that measures at least one physiological value; a peripheral system configured to provide medical assistance to the patient and the peripheral system produces a signal indicative of the operation of the peripheral system; a processor communicatively connected to the mechanical ventilator, the physiological sensor, and the peripheral system, the processor further communicatively connected to a computer readable medium configured with computer readable code that upon execution by the processor, causes the processor to: receive the signal from the peripheral system; calculate a first score from the signal; receive the physiological value from the physiological sensor; calculate a second score from the physiological value; aggregate the first score and the second score into a derecruitment score; compare the derecruitment score to a predetermined threshold; and if the derecruitment score exceeds the predetermined threshold, operate the mechanical ventilator to provide a recruitment procedure to the patient. a mechanical ventilator configured for pneumatic connection to a patient in order to deliver medical gas to the patient; at least one physiological sensor that measures at least one physiological value; a peripheral system configured to provide medical assistance to the patient and the peripheral system produces a signal indicative of the operation of the peripheral system; a processor communicatively connected to the mechanical ventilator, the physiological sensor, and the peripheral system, the processor further communicatively connected to a computer readable medium configured with computer readable code that upon execution by the processor, causes the processor to: receive the signal from the peripheral system; calculate a first score from the signal; receive the physiological value from the physiological sensor; calculate a second score from the physiological value; aggregate the first score and the second score into a derecruitment score; compare the derecruitment score to a predetermined threshold; and if the derecruitment score exceeds the predetermined threshold, operate the mechanical ventilator to provide a recruitment procedure to the patient. receive the signal from the peripheral system; calculate a first score from the signal; receive the physiological value from the physiological sensor; calculate a second score from the physiological value; aggregate the first score and the second score into a derecruitment score; compare the derecruitment score to a predetermined threshold; and if the derecruitment score exceeds the predetermined threshold, operate the mechanical ventilator to provide a recruitment procedure to the patient.
Jointing assembly for electrical cables, comprising: - a connector extending about a longitudinal axis (X-X) and provided, at at least one end portion (11a, 11b) thereof, with at least one housing seat (12a, 12b) for at least one free end of a respective electrical cable (100a, 100b); - a shrinkable sleeve coaxially arranged in a radially outer position with respect to said connector; wherein said shrinkable sleeve is held in a radially expanded state by at least one removable support element (30a, 30b) radially interposed between said connector and said shrinkable sleeve; characterised in that said connector is mechanically coupled to said at least one removable support element (30a, 30b) by at least one stop element (70a, 70b) which radially projects from at least one of said connector and said at least one removable support element (30a, 30b) and contacts the other one of said connector and said at least one removable support element (30a, 30b). - a connector extending about a longitudinal axis (X-X) and provided, at at least one end portion (11a, 11b) thereof, with at least one housing seat (12a, 12b) for at least one free end of a respective electrical cable (100a, 100b); - a shrinkable sleeve coaxially arranged in a radially outer position with respect to said connector; wherein said shrinkable sleeve is held in a radially expanded state by at least one removable support element (30a, 30b) radially interposed between said connector and said shrinkable sleeve;
A trocar comprising: a retention cannula (400, 500, 600, 700, 900) comprising: a proximal end, a distal end, and a longitudinal axis; a cannula body between the proximal end of the cannula and the distal end, the cannula body having an outer diameter, and the cannula body comprising a cannula wall defining a lumen extending between the proximal end and the distal end; and an inverted, tissue retention pattern (440, 540, 640, 740, 940) extending into the cannula wall, the inverted tissue retention pattern comprising a continuous inverted pattern, wherein an outer diameter of the inverted tissue retention pattern is not greater than the outer diameter of the cannula body; characterized in that the inverted pattern (440, 540, 640, 740, 940) is defined by a plurality of flat cuts (442, 542, 642, 742a, 944a) extending generally perpendicular to the longitudinal axis of the retention cannula (400, 500, 600, 700, 900), and a plurality of helical cuts (444, 544, 644a, 744, 944b) extending generally transverse to the longitudinal axis of the retention cannula (400, 500, 600, 700, 900) and positioned such that each of the plurality of flat cuts (442, 542, 642, 742a, 944a) is connected to an adjacent one of the plurality of flat cuts (442, 542, 642, 742a, 944a) by a helical cut (444, 544, 644a, 744, 944b). a proximal end, a distal end, and a longitudinal axis; a cannula body between the proximal end of the cannula and the distal end, the cannula body having an outer diameter, and the cannula body comprising a cannula wall defining a lumen extending between the proximal end and the distal end; and an inverted, tissue retention pattern (440, 540, 640, 740, 940) extending into the cannula wall, the inverted tissue retention pattern comprising a continuous inverted pattern, wherein an outer diameter of the inverted tissue retention pattern is not greater than the outer diameter of the cannula body; characterized in that the inverted pattern (440, 540, 640, 740, 940) is defined by a plurality of flat cuts (442, 542, 642, 742a, 944a) extending generally perpendicular to the longitudinal axis of the retention cannula (400, 500, 600, 700, 900), and a plurality of helical cuts (444, 544, 644a, 744, 944b) extending generally transverse to the longitudinal axis of the retention cannula (400, 500, 600, 700, 900) and positioned such that each of the plurality of flat cuts (442, 542, 642, 742a, 944a) is connected to an adjacent one of the plurality of flat cuts (442, 542, 642, 742a, 944a) by a helical cut (444, 544, 644a, 744, 944b).
A method for winding a web-like material onto winding cores comprising the following stages: - feeding a web-like material to a winding roller of a reel winding machine; - winding the web-like material by means of said winding roller around a first winding core to form a reel of web-like material; - approaching a second winding core to the winding roller and driving said second winding core into rotation; - providing a mechanical anchoring device arranged on said second winding core for anchoring one end of a tear-off tape to said second winding core; - actuating said mechanical anchoring device by causing said mechanical anchoring device to interact with an actuator carried by said reel winding machine and associated with said winding roller on completion of the winding of said reel of web-like material on said first winding core, to anchor said end of the tear-off tape to said second winding core; - causing severing of the web-like material by helically winding said tear-off tape around said second winding core. - feeding a web-like material to a winding roller of a reel winding machine; - winding the web-like material by means of said winding roller around a first winding core to form a reel of web-like material; - approaching a second winding core to the winding roller and driving said second winding core into rotation; - providing a mechanical anchoring device arranged on said second winding core for anchoring one end of a tear-off tape to said second winding core; - actuating said mechanical anchoring device by causing said mechanical anchoring device to interact with an actuator carried by said reel winding machine and associated with said winding roller on completion of the winding of said reel of web-like material on said first winding core, to anchor said end of the tear-off tape to said second winding core; - causing severing of the web-like material by helically winding said tear-off tape around said second winding core.
A halogen-free flame-retardant insulated wire, comprising: a conductor; and a single or multilayered crosslinked insulation layer around the conductor, wherein the insulation layer has a tensile modulus of not less than 500 MPa and an elongation at break of not more than 120 % in a tensile test conducted at a displacement rate of 200 mm/min, and a storage modulus of not less than 3x10 6 Pa at 125 °C in a dynamic viscoelasticity test, wherein an outermost layer of the insulation layer includes high-density polyethylene or linear low-density polyethylene as a base polymer. a conductor; and a single or multilayered crosslinked insulation layer around the conductor, wherein the insulation layer has a tensile modulus of not less than 500 MPa and an elongation at break of not more than 120 % in a tensile test conducted at a displacement rate of 200 mm/min, and a storage modulus of not less than 3x10 6 Pa at 125 °C in a dynamic viscoelasticity test, wherein an outermost layer of the insulation layer includes high-density polyethylene or linear low-density polyethylene as a base polymer.
A front axle carrier for motor vehicles, in which respectively two receptacles (12, 14), which are spaced apart from one another in the longitudinal direction of the vehicle, for the bearing points for the pivoting bearing of in each case one of two wheel-guiding members, such as transverse control arms or triangular control arms; and receptacles (16, 18) for attaching the front axle carrier are provided as a prefabricated unit together with preassembled units on the vehicle structure, and at least individual receptacles of the below-listed receptacles for - the attachment of the steering gear - the attachment of the stabiliser - the bearing of a pendulum support and the front axle carrier is manufactured as a component forming one piece with these receptacles (12, 14, 16, 18, 20, 22, 24) and connecting these to one another, characterised in that the receptacles (16, 18) for attaching the front axle carrier comprise first receptacles which are connected to one another by a connecting element, wherein at least one receptacle for attachment means for affixing the exhaust system is provided on the connecting element which connects the first receptacles to one another. - the attachment of the steering gear - the attachment of the stabiliser - the bearing of a pendulum support
A vibration energy harvester for converting mechanical vibrational energy into electrical energy, the vibration energy harvester comprising a device for generating electrical energy when subjected to mechanical vibration; characterized in that the vibration energy harvester comprises a current control circuit (8, 28) electrically connected to the device for providing a substantially constant output current (I out) at an electrical output of the vibration energy harvester, wherein the current control circuit (8, 28) comprises: a first controllable variable resistance connected to the electrical output of the vibration energy harvester; a second controllable variable resistance connected to the electrical output of the vibration energy harvester, the second controllable variable resistance comprising a shunt resistance between a power line and a ground line of the device; and a reference voltage generator for generating a preset reference voltage (V ref), and an error amplifier for comparing an input voltage (V in) from the device with the reference voltage (V ref) for generating a first control signal for selectively adjusting the first controllable variable resistance when the input voltage (V in) is different from the reference voltage (V ref), wherein the current control circuit (8, 28) is adapted to control the first controllable variable resistance so that an input voltage (V in) from the device is maintained at a predetermined voltage, wherein the current control circuit (8, 28) is adapted to control the output voltage (V out) at the electrical output of the vibration energy harvester by varying the second controllable variable resistance so that the output voltage (V out) does not exceed a predetermined threshold voltage. a first controllable variable resistance connected to the electrical output of the vibration energy harvester; a second controllable variable resistance connected to the electrical output of the vibration energy harvester, the second controllable variable resistance comprising a shunt resistance between a power line and a ground line of the device; and a reference voltage generator for generating a preset reference voltage (V ref), and an error amplifier for comparing an input voltage (V in) from the device with the reference voltage (V ref) for generating a first control signal for selectively adjusting the first controllable variable resistance when the input voltage (V in) is different from the reference voltage (V ref), wherein the current control circuit (8, 28) is adapted to control the first controllable variable resistance so that an input voltage (V in) from the device is maintained at a predetermined voltage, wherein the current control circuit (8, 28) is adapted to control the output voltage (V out) at the electrical output of the vibration energy harvester by varying the second controllable variable resistance so that the output voltage (V out) does not exceed a predetermined threshold voltage.
A synchronous rectifier controller for a switched mode power supply comprising a synchronous rectifier, the switched mode power supply having a power input, a switch, a transformer, an output capacitor (C 0) and a power output, said transformer having a primary winding on a primary side of said switched mode power supply coupled to said power input and said switch, and a secondary winding on a secondary side of said switched mode power supply coupled to said power output and said output capacitor, said switch to switch power to said primary winding responsive to a drive signal, the switched mode power supply further comprising sense circuitry on the primary side to sense a voltage on the secondary winding, the switched mode power supply having a primary side sensing controller to control said drive signal according to at least the sensed voltage, the synchronous rectifier for blocking current flow from the output capacitor to the secondary winding, the synchronous rectifier controller comprising: a sensor to sense a signal on the secondary side, to thereby detect turn off of the switch; a charge source to, in response to a said detection, charge a control terminal of the synchronous rectifier to a voltage beyond a threshold voltage of the synchronous rectifier to allow the synchronous rectifier to conduct current of the secondary winding; and a linear amplifier having an output to sink current from the control terminal dependent on a difference between a voltage across the synchronous rectifier and an amplifier reference value, said voltage across the synchronous rectifier being a voltage across a controllable conduction path for current of the secondary winding, the linear amplifier thereby configured to inhibit discharge of the control terminal from the voltage beyond the threshold voltage until the voltage across the synchronous rectifier reaches the amplifier reference value. a sensor to sense a signal on the secondary side, to thereby detect turn off of the switch; a charge source to, in response to a said detection, charge a control terminal of the synchronous rectifier to a voltage beyond a threshold voltage of the synchronous rectifier to allow the synchronous rectifier to conduct current of the secondary winding; and a linear amplifier having an output to sink current from the control terminal dependent on a difference between a voltage across the synchronous rectifier and an amplifier reference value, said voltage across the synchronous rectifier being a voltage across a controllable conduction path for current of the secondary winding, the linear amplifier thereby configured to inhibit discharge of the control terminal from the voltage beyond the threshold voltage until the voltage across the synchronous rectifier reaches the amplifier reference value.
Means for a user-portable electronic device, the means comprising: means for establishing short range transmission connection between the user-portable electronic device and one or more mobile electronic devices; means for determining a geographic location, which determines: (i) a geographic location for the or each mobile electronic device based on transmission connection activity between the user-portable electronic device and the or each mobile electronic device, wherein the geographic location is a geographic location of the means for determining the geographic location; and (ii) a last-known geographic location of the or each mobile electronic device based on where the transmission connection was last active or disconnected; and means for allowing storage of at least the last-known geographic location of the or each mobile electronic device in a geographic location last active/disconnection log to facilitate subsequent location of any of the one or more mobile electronic devices by a user, wherein the geographic last active/disconnection log is for storage in storage circuitry in the user-portable electronic device or remotely in remote storage circuitry. means for establishing short range transmission connection between the user-portable electronic device and one or more mobile electronic devices; means for determining a geographic location, which determines: (i) a geographic location for the or each mobile electronic device based on transmission connection activity between the user-portable electronic device and the or each mobile electronic device, wherein the geographic location is a geographic location of the means for determining the geographic location; and (ii) a last-known geographic location of the or each mobile electronic device based on where the transmission connection was last active or disconnected; and (i) a geographic location for the or each mobile electronic device based on transmission connection activity between the user-portable electronic device and the or each mobile electronic device, wherein the geographic location is a geographic location of the means for determining the geographic location; and (ii) a last-known geographic location of the or each mobile electronic device based on where the transmission connection was last active or disconnected; and means for allowing storage of at least the last-known geographic location of the or each mobile electronic device in a geographic location last active/disconnection log to facilitate subsequent location of any of the one or more mobile electronic devices by a user, wherein the geographic last active/disconnection log is for storage in storage circuitry in the user-portable electronic device or remotely in remote storage circuitry.
A method for manufacturing a spindly wood element having at least one textured surface after machining including relief geometric shapes (4, 40) asymmetrically extending on the surface of the spindly element and randomly and non-repeatedly distributed on the entirety of said surface at least in a surface distribution and/or in thickness/depth, such that said machining is performed by virtue of the translation of the spindly element along a travelling direction corresponding to the longitudinal direction of said element, preferably on a facer-planer, and the implementation of at least one machining tool (13A, 13B, 13C, 13D) arranged on at least one rotating shaft (12A, 12B) extending in a direction transverse to the travelling direction, the shaft (12A, 12B) being on the one hand rotatably movable in a direction opposite to the travelling direction of the element and on the other hand axially translationally movable, transversely to the travelling direction, and characterised in that the element is dedicated to the manufacture of a staircase handrail and in that the machining tool (13A, 13B, 13C, 13D) includes a knife (14A, 14B, 14C, 14D) the profile of which includes unevenly alternating recesses and convexities with cutting edges.
A solar cell precursor at least comprising as precursor parts: i) a wafer with at least one hole with a Si surface; ii) an electro-conductive paste at least comprising as paste constituents: a) metallic particles; b) an inorganic reaction system; c) an organic vehicle; d) inorganic oxide particles having no glass transition temperature below about 750 °C, or a glass transition temperature which is at least about 50 °C higher than the glass transition temperature of the inorganic reaction system; and e) an additive; comprised by the hole; wherein the inorganic oxide particles are PbO 2, SiO 2, SeO, MgO, Al 2 O 3 or CaO particles. i) a wafer with at least one hole with a Si surface; ii) an electro-conductive paste at least comprising as paste constituents: a) metallic particles; b) an inorganic reaction system; c) an organic vehicle; d) inorganic oxide particles having no glass transition temperature below about 750 °C, or a glass transition temperature which is at least about 50 °C higher than the glass transition temperature of the inorganic reaction system; and e) an additive; comprised by the hole; a) metallic particles; b) an inorganic reaction system; c) an organic vehicle; d) inorganic oxide particles having no glass transition temperature below about 750 °C, or a glass transition temperature which is at least about 50 °C higher than the glass transition temperature of the inorganic reaction system; and e) an additive;
A device for shielding against sunlight, preferably a sun visor device, for a motor vehicle, preferably a utility vehicle, having: a panel part, which is designed for the interior covering of an A pillar of the motor vehicle; and a visor body, which is connected movably to the panel part, wherein the visor body is lockable magnetically to the panel part, characterized in that the visor body is lockable to the panel part in a use position of the visor body, namely magnetically. a panel part, which is designed for the interior covering of an A pillar of the motor vehicle; and a visor body, which is connected movably to the panel part, wherein the visor body is lockable magnetically to the panel part, characterized in that the visor body is lockable to the panel part in a use position of the visor body, namely magnetically.
Method for producing rough surface structures by means of laser treatment, wherein - a laser beam is guided along filling lines over the area to be processed, wherein - the filling line is broken down into individual laser dots with a distance a, and - the laser dots are moved in an X-direction and in a Y-direction in a plane by a random factor b relative to the filling line so that they form a cloud of dots. - a laser beam is guided along filling lines over the area to be processed, - the filling line is broken down into individual laser dots with a distance a, and - the laser dots are moved in an X-direction and in a Y-direction in a plane by a random factor b relative to the filling line so that they form a cloud of dots.