mhurhangee/ep-ind-claims huggingface dataset:
Device for printing on a first and/or a second side (6a, 6b) of a web of printing material, characterized by a printing device with at least two printing modules (11, 12, 13), wherein the printing modules are inkjet printing heads and the printing fluid is ink, and with an effective range that is associated with the printing device and in which printing fluid is transmitted to the web by means of the printing modules, a first guide element for guiding the web along at least a first part of the effective range, a turning device for turning the web, the turning device disposed downstream of the first guide element in terms of the direction of web travel, and a second guide element for guiding the web along at least a second part of the effective range, the second guide element disposed downstream of the turning device in terms of the direction of web travel and different from the first guide element, wherein at least one printing module is disposed to be movable relative to at least one of the two guide elements to carry out a relative movement and/or at least one of the two guide elements is disposed to be movable relative to at least one of the printing modules.
An asynchronous processor core, i.e., not cadenced by a clock signal, configured for the sequential execution of instructions upon receipt of interrupt control signals, comprising: - a loading unit for a sequential loading of instruction lines from a main memory which is external to the processor core, - a decoder for decoding instruction lines loaded by the loading unit into executable instructions, - functional units (52, 54, 58, 60, 62) for executing the executable instructions, and - an execution control module configured into a two-state automaton: • a sleep state wherein the asynchronous processor core awaits an interrupt control signal to execute an interrupt routine, and • an execution state wherein the decoder awaits a new instruction line from an interrupt routine that is being executed to be decoded, characterised in that the execution control module further manages a state variable (status) of the loading unit to selectively authorize or prevent, according to at least the value of this state variable (status), the loading of a new instruction line by the loading unit when the execution control module is in its execution state and when at least one new instruction line of an interrupt routine that is being executed still remains to be loaded, and in that the execution control module is designed for consulting the value of this state variable (status) before deciding whether or not to send a signal (continue) authorising the loading of a new instruction line to the loading unit, the latter being configured not to request the loading of a new execution routine instruction line until such an authorisation signal (continue) has not been sent by the execution control module. - a loading unit for a sequential loading of instruction lines from a main memory which is external to the processor core, - a decoder for decoding instruction lines loaded by the loading unit into executable instructions, - functional units (52, 54, 58, 60, 62) for executing the executable instructions, and - an execution control module configured into a two-state automaton: • a sleep state wherein the asynchronous processor core awaits an interrupt control signal to execute an interrupt routine, and • an execution state wherein the decoder awaits a new instruction line from an interrupt routine that is being executed to be decoded, • a sleep state wherein the asynchronous processor core awaits an interrupt control signal to execute an interrupt routine, and • an execution state wherein the decoder awaits a new instruction line from an interrupt routine that is being executed to be decoded,
Tubular conveyor belt having a carrying-side cover panel and a running-side cover panel, each with an elastomer material and an embedded tension member, wherein the tubular conveyor belt is designed to be closed by virtue of its two belt flanks overlapping to form two peripheral zones (A, B) in contact with one another, characterized in that the tubular conveyor belt, on its carrying-side cover panel, has a profiling formed essentially perpendicularly to the carrying-side cover panel, wherein the profiling is a chevron profiling, which has diagonal elements which extend both in the longitudinal direction and in the transverse direction of the tubular conveyor belt and, together in pairs, each give a V shape, of which the point is oriented in the longitudinal direction counter to the conveying direction, wherein the chevron profiling has a plurality of individual diagonal elements, which are spaced apart from one another by an interruption and together extend both in the longitudinal direction and in the transverse direction of the pocket conveyor belt to give, jointly, a V shape, wherein the individual diagonal elements have a different orientation to that of all of the adjacent diagonal elements taken as a whole.
Closing and printing/labelling process of a container, comprising the steps of: - applying a concave closure on the mouth of said container, said step of applying the concave closure comprising the step of resting the concave closure on the mouth of the container and the step of pressing the concave closure on the mouth of the said container; - screwing the concave closure on the neck of said container; - applying a label to the body of the container or printing the body of the container arranged in a corresponding printing/labelling station, wherein the step of screwing the concave closure on the neck of the container is carried out during the step of applying the label or printing the body of the container in the corresponding printing/labelling station, characterised in that the steps of resting and pressing the concave closure on the mouth of the container takes place in a controlled-contamination environment, defined by an isolator, containing at least the neck of the container and having a volume that extends into a restricted zone about the neck of the container while the step of screwing the concave closure on the neck of the container takes place externally of said controlled-contamination environment. - applying a concave closure on the mouth of said container, said step of applying the concave closure comprising the step of resting the concave closure on the mouth of the container and the step of pressing the concave closure on the mouth of the said container; - screwing the concave closure on the neck of said container; - applying a label to the body of the container or printing the body of the container arranged in a corresponding printing/labelling station,
A sensor response time acceleration method preferably for use with a sensor (22, 24) coupled to an element of an internal combustion engine, including the steps of reading a signal from a/the sensor (22, 24), said signal representative of an environmental attribute as detected by said sensor (22, 24); and operating on said signal with a function of an inverse model of said sensor (22, 24) and a function representative of a desired sensor model to yield an accelerated output representative of said environmental attribute.
An apparatus for a user equipment, UE, (120a - 120e), the apparatus comprising means for sending only control information from the UE (120a - 120e) on a first set of subcarriers in a first frequency location within a control section of system bandwidth if data is not being sent in a time interval, the control section being at an edge of the system bandwidth, and the first set of subcarriers being assigned to the UE (120a - 120e) in the time interval for sending only control information in the first frequency location; and means for sending both the control information and data from the UE (120a - 120e) on a second set of contiguous subcarriers in a second frequency location within a data section of the system bandwidth if data is being sent in the time interval, so that the UE transmits on contiguous subcarriers in the time interval, the data section being a contiguous portion of the system bandwidth including all subcarriers not within the control section, and the second set of subcarriers being assigned to the UE (120a - 120e) for sending data in said time interval in the second frequency location different from the first frequency location. means for sending only control information from the UE (120a - 120e) on a first set of subcarriers in a first frequency location within a control section of system bandwidth if data is not being sent in a time interval, the control section being at an edge of the system bandwidth, and the first set of subcarriers being assigned to the UE (120a - 120e) in the time interval for sending only control information in the first frequency location; and means for sending both the control information and data from the UE (120a - 120e) on a second set of contiguous subcarriers in a second frequency location within a data section of the system bandwidth if data is being sent in the time interval, so that the UE transmits on contiguous subcarriers in the time interval, the data section being a contiguous portion of the system bandwidth including all subcarriers not within the control section, and the second set of subcarriers being assigned to the UE (120a - 120e) for sending data in said time interval in the second frequency location different from the first frequency location.
A polyamic acid solution comprising: a polyamic acid having the following general formula; in the formula, X denotes a divalent organic group, and Y denotes a tetravalent organic group a solvent in which the polyamic acid is dissolved; and a substance that can release at least one metal selected from groups 1 and 2 of the periodic table as a metal ion, with the substance M being at least one substance selected from a metal oxide (M-b) containing at least one metal selected from Mg, Ca, and K, and a metal hydroxide (M-c) containing at least one metal selected from Na, K, Mg, Ca, Sr, and Ba or a substance (m) that contains the substance, with the substance (m) being heat-treated talc and the substance contained in substance (m) being at least one substance selected from beryllium oxide, magnesium oxide, magnesium carbonate, calcium oxide, calcium carbonate, strontium carbonate, barium oxide or barium carbonate, wherein X in the constitutional unit having the general formula is at least one divalent alicyclic group selected from the group consisting of or at least one bivalent aromatic group selected from the group consisting of wherein X 1 to X 5 are selected from and X 2 to X 5 may be the same or different from one another, and Y in the constitutional unit having the general formula is at least one tetravalent aromatic group selected from the group consisting of or at least one tetravalent alicyclic group selected from the group consisting of a polyamic acid having the following general formula; in the formula, X denotes a divalent organic group, and Y denotes a tetravalent organic group a solvent in which the polyamic acid is dissolved; and a substance that can release at least one metal selected from groups 1 and 2 of the periodic table as a metal ion, with the substance M being at least one substance selected from a metal oxide (M-b) containing at least one metal selected from Mg, Ca, and K, and a metal hydroxide (M-c) containing at least one metal selected from Na, K, Mg, Ca, Sr, and Ba or a substance (m) that contains the substance, with the substance (m) being heat-treated talc and the substance contained in substance (m) being at least one substance selected from beryllium oxide, magnesium oxide, magnesium carbonate, calcium oxide, calcium carbonate, strontium carbonate, barium oxide or barium carbonate, wherein X in the constitutional unit having the general formula is at least one divalent alicyclic group selected from the group consisting of or at least one bivalent aromatic group selected from the group consisting of wherein X 1 to X 5 are selected from and X 2 to X 5 may be the same or different from one another, and Y in the constitutional unit having the general formula is at least one tetravalent aromatic group selected from the group consisting of or at least one tetravalent alicyclic group selected from the group consisting of
A fuel system, comprising: a fluoroscopy device, a fuel line configured to allow a fuel to flow therethrough, the fluoroscopy device attached to the fuel line, wherein the fluoroscopy device is configured to input excitation radiation directly into an interior of the fuel line and to receive fluorescent radiation emitted from the fuel in the fuel line, characterised in that the fuel line includes a bend and in that the fluoroscopy device is disposed at the bend. a fluoroscopy device, a fuel line configured to allow a fuel to flow therethrough, the fluoroscopy device attached to the fuel line, wherein the fluoroscopy device is configured to input excitation radiation directly into an interior of the fuel line and to receive fluorescent radiation emitted from the fuel in the fuel line, characterised in that the fuel line includes a bend and in that the fluoroscopy device is disposed at the bend.
A system including a transvenously implantable medical device (10; 200; 300; 400) and a straightening member, the transvenously implantable medical device (10; 200; 300; 400) comprising: an electrical lead (52; 220; 320; 420, 422) including one or more electrodes (98, 100, 102; 315); a control module (50; 210; 310; 410) mechanically secured to and in electrical communication with the electrical lead, the control module including a signal management component and a power component disposed in a hermetically sealed housing adapted for implantation into a blood vessel such that blood in the blood vessel can flow past the control module between the housing and an internal wall of the blood vessel, the control module adapted for at least one of stimulating and sensing a physiologic response using the one or more electrodes of the electrical lead; and wherein the electrical lead further includes a lumen extending therethrough configured to accommodate the straightening member within the lumen in order to adapt the electrical lead for transvenous implantation, the electrical lead is pre-biased to expand from a collapsed state to an expanded state to mechanically engage the internal wall of the blood vessel upon removal of the straightening member so as to anchor the electrical lead and the mechanically connected control module in the blood vessel. an electrical lead (52; 220; 320; 420, 422) including one or more electrodes (98, 100, 102; 315); a control module (50; 210; 310; 410) mechanically secured to and in electrical communication with the electrical lead, the control module including a signal management component and a power component disposed in a hermetically sealed housing adapted for implantation into a blood vessel such that blood in the blood vessel can flow past the control module between the housing and an internal wall of the blood vessel, the control module adapted for at least one of stimulating and sensing a physiologic response using the one or more electrodes of the electrical lead; and wherein the electrical lead further includes a lumen extending therethrough configured to accommodate the straightening member within the lumen in order to adapt the electrical lead for transvenous implantation, the electrical lead is pre-biased to expand from a collapsed state to an expanded state to mechanically engage the internal wall of the blood vessel upon removal of the straightening member so as to anchor the electrical lead and the mechanically connected control module in the blood vessel.
Process to obtain mesenchymal cells with marked bone regenerative ability, which includes the steps of: a) in vitro expanding isolated mesenchymal cells, b) labeling said mesenchymal cells with suitable expression vectors, obtaining labelled cells c) selecting said labelled cells that, after inoculation into the circulation system of an experimental model have been attracted by a scaffold positioned at the site of a bone lesion and subsequently removed d) expanding said selected cells in culture to obtain a cell pool with high bone tropism.
A tantalum sputtering target, wherein when the sum of the overall crystalline orientation is 1 on a tantalum target surface: the area ratio of crystals having any orientation among <001>, <001> and <001> and in which the rotation error is within 10° against an ND axis (orientation axis normal to rolling plane) does not exceed 0.5; AND/OR the sum of the area ratio of crystals having any two orientations among <001>, <001> and <001> and in which the rotation error is within 10° against an ND axis (orientation axis normal to rolling plane) does not exceed 0.75. the area ratio of crystals having any orientation among <001>, <001> and <001> and in which the rotation error is within 10° against an ND axis (orientation axis normal to rolling plane) does not exceed 0.5; AND/OR the sum of the area ratio of crystals having any two orientations among <001>, <001> and <001> and in which the rotation error is within 10° against an ND axis (orientation axis normal to rolling plane) does not exceed 0.75.
A cofactor regeneration system comprising: i) a first electron transfer component selected from one or more polypeptides comprising a NADH:acceptor oxido-reductase or a NADPH:acceptor oxido-reductase, ii) a second electron transfer component selected from a hydrogenase moiety and/or non-biological nanoparticles; and, iii) an electronically conducting surface; wherein the first and second electron transfer components are immobilised on the electronically conducting surface, wherein the first and second electron transfer components do not occur together in nature as an enzyme complex, and wherein the cofactor regeneration system is configured so that in use, electrons flow: from the first electron transfer component via the electronically conducting surface to the second electron transfer component; or from the second electron transfer component via the electronically conducting surface to the first electron transfer component. i) a first electron transfer component selected from one or more polypeptides comprising a NADH:acceptor oxido-reductase or a NADPH:acceptor oxido-reductase, ii) a second electron transfer component selected from a hydrogenase moiety and/or non-biological nanoparticles; and, iii) an electronically conducting surface; from the first electron transfer component via the electronically conducting surface to the second electron transfer component; or from the second electron transfer component via the electronically conducting surface to the first electron transfer component.
Method for controlling at least one force-feedback device (101, 102, 103) associated with at least a part of a body, the method comprises: - determining a value representative of a speed of a movement of said at least a part of the body according to at least a parameter representative of the displacement of said at least one force-feedback device (101, 102, 103), the movement of said at least a part of the body being induced by the displacement of said at least one force-feedback device (101, 102, 103), characterized in that the method further comprises controlling said at least one parameter by modifying said at least one parameter when the determined value is equal to or greater than a reference value, the at least one parameter being modified to decrease said value below said reference value, said at least one parameter being modified by washout filtering to make the displacement of said at least one force-feedback device not to be perceived. - determining a value representative of a speed of a movement of said at least a part of the body according to at least a parameter representative of the displacement of said at least one force-feedback device (101, 102, 103), the movement of said at least a part of the body being induced by the displacement of said at least one force-feedback device (101, 102, 103), characterized in that the method further comprises controlling said at least one parameter by modifying said at least one parameter when the determined value is equal to or greater than a reference value, the at least one parameter being modified to decrease said value below said reference value, said at least one parameter being modified by washout filtering to make the displacement of said at least one force-feedback device not to be perceived.
A system for determining a heart rate of a patient having an implanted blood pump including: a controller including a processor, the processor having processing circuitry configured to: apply a voltage to a plurality of coils of a stator of the blood pump to produce an electromagnetic force to rotate a rotor in communication with the plurality of coils; display a waveform associated with a back electromotive force in the plurality of coils of the blood pump; determine a time interval between a first alteration in the waveform relative to a baseline and a second alteration in the waveform relative to the baseline; wherein the baseline is an upper hysteresis band, wherein the first alteration is a first rise in the waveform relative to the baseline and the second alteration is a second rise in the waveform relative to the baseline, and determine the heart rate of the patient based on the determined time interval. apply a voltage to a plurality of coils of a stator of the blood pump to produce an electromagnetic force to rotate a rotor in communication with the plurality of coils; display a waveform associated with a back electromotive force in the plurality of coils of the blood pump; determine a time interval between a first alteration in the waveform relative to a baseline and a second alteration in the waveform relative to the baseline; wherein the baseline is an upper hysteresis band, wherein the first alteration is a first rise in the waveform relative to the baseline and the second alteration is a second rise in the waveform relative to the baseline, and determine the heart rate of the patient based on the determined time interval.
A suction and pressurisation device comprising: - a water tank; - a high-pressure pump connected to the water tank and capable of supplying high-pressure water; - a hydro-ejector supplied with high-pressure water by the high-pressure pump at a water inlet and configured to generate, from the speed of the high-pressure water, a suction upstream of an air inlet, the high-pressure water and the air sucked in mixing to form a flow of water and air which is discharged at an exhaust pipe; - a separation pot connected to the exhaust pipe of the hydro-ejector and configured to separate water and air from the flow of water and air, the water being discharged at a water outlet and returning to the water tank on the one hand and the air being discharged at an air outlet on the other hand, characterised in that the separation pot comprises, at the water outlet, a float and a throttle configured to allow the hydro-ejector to generate a pressure in the separation pot capable of pressurising downstream of the air outlet, the hydro-ejector thus being capable of: - a suction upstream of the air inlet; and - a pressurisation downstream of the air outlet. - a water tank; - a high-pressure pump connected to the water tank and capable of supplying high-pressure water; - a hydro-ejector supplied with high-pressure water by the high-pressure pump at a water inlet and configured to generate, from the speed of the high-pressure water, a suction upstream of an air inlet, the high-pressure water and the air sucked in mixing to form a flow of water and air which is discharged at an exhaust pipe; - a separation pot connected to the exhaust pipe of the hydro-ejector and configured to separate water and air from the flow of water and air, the water being discharged at a water outlet and returning to the water tank on the one hand and the air being discharged at an air outlet on the other hand, - a suction upstream of the air inlet; and - a pressurisation downstream of the air outlet.