mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for producing nano-bubbles in a volume of liquid, the apparatus comprising: a motor comprising a rotatable shaft ; an axially rotatable permeable member including a body having a wall and a plurality of pores through which gas introduced into the axially rotatable permeable member can flow, the axially rotatable permeable member couplable to a gas inlet configured to introduce gas from a gas source into the axially rotatable permeable member, the axially rotatable permeable member coupled to the rotatable shaft of the motor and adapted to rotate along with the rotatable shaft; wherein the axially rotatable permeable member, when rotated, is adapted to move the liquid away from an outer surface of the body of the axially rotatable permeable member and simulate turbulent flow above the turbulent threshold in the liquid that allows the liquid to shear gas from the outer surface of the axially rotatable permeable member, thereby forming nano-bubbles in the liquid, characterized in that the axially rotatable permeable member further comprises at least one radially-extending member . a motor comprising a rotatable shaft ; an axially rotatable permeable member including a body having a wall and a plurality of pores through which gas introduced into the axially rotatable permeable member can flow, the axially rotatable permeable member couplable to a gas inlet configured to introduce gas from a gas source into the axially rotatable permeable member, the axially rotatable permeable member coupled to the rotatable shaft of the motor and adapted to rotate along with the rotatable shaft; wherein the axially rotatable permeable member, when rotated, is adapted to move the liquid away from an outer surface of the body of the axially rotatable permeable member and simulate turbulent flow above the turbulent threshold in the liquid that allows the liquid to shear gas from the outer surface of the axially rotatable permeable member, thereby forming nano-bubbles in the liquid, characterized in that the axially rotatable permeable member further comprises at least one radially-extending member .
An implantable drug delivery and biomarker access device, comprising: a first reservoir configured to be implanted between a scalp and skull of a patient, the first reservoir being naturally biased to be in an expanded configuration; a second reservoir configured to be implanted between the scalp and the skull of the patient, the first reservoir being naturally biased to be in an unexpanded configuration; a first one-way valve disposed along a fluid connection between the first and second reservoirs, the first one-way valve oriented to allow fluid to flow from the first reservoir to the second reservoir and to prevent fluid from flowing from the second reservoir to the first reservoir; a perfusion catheter extending from the second reservoir and in fluid communication therewith; a return catheter extending from the first reservoir and in fluid communication therewith; and a second one-way valve disposed along the return catheter, the second one-way valve oriented to allow fluid to flow from the return catheter to the first reservoir and to prevent fluid from flowing from the first reservoir to the return catheter. a first reservoir configured to be implanted between a scalp and skull of a patient, the first reservoir being naturally biased to be in an expanded configuration; a second reservoir configured to be implanted between the scalp and the skull of the patient, the first reservoir being naturally biased to be in an unexpanded configuration; a first one-way valve disposed along a fluid connection between the first and second reservoirs, the first one-way valve oriented to allow fluid to flow from the first reservoir to the second reservoir and to prevent fluid from flowing from the second reservoir to the first reservoir; a perfusion catheter extending from the second reservoir and in fluid communication therewith; a return catheter extending from the first reservoir and in fluid communication therewith; and a second one-way valve disposed along the return catheter, the second one-way valve oriented to allow fluid to flow from the return catheter to the first reservoir and to prevent fluid from flowing from the first reservoir to the return catheter.
A computer-implemented method for assessing at least one printed circuit board (PCB1, PCB2, PCB3), comprising: - receiving input data (ID), wherein the input data (ID) is based on a testing data (TD) of at least one printed circuit board (PCB1, PCB2, PCB3), wherein the testing data is an in-circuit test testing data and comprises measurement data (MDB) of a plurality of electronic components of the at least one printed circuit board (PCB1, PCB2, PCB3); - applying a trained classification function (TCF) to the input data (ID), wherein an output data is generated; - providing the output data, wherein the output data comprises an assignment (ASG) of at least one of the plurality of the electronic components of the at least one printed circuit board (PCB1, PCB2, PCB3) to one of at least two different classes. - receiving input data (ID), wherein the input data (ID) is based on a testing data (TD) of at least one printed circuit board (PCB1, PCB2, PCB3), wherein the testing data is an in-circuit test testing data and comprises measurement data (MDB) of a plurality of electronic components of the at least one printed circuit board (PCB1, PCB2, PCB3); - applying a trained classification function (TCF) to the input data (ID), wherein an output data is generated; - providing the output data, wherein the output data comprises an assignment (ASG) of at least one of the plurality of the electronic components of the at least one printed circuit board (PCB1, PCB2, PCB3) to one of at least two different classes.
Process for purifying an olefinic feedstock comprising olefins with 4 carbon atoms and impurities including isobutanal, ethanol and acetone, said process comprising: a) a pre-treatment step comprising at least a step of eliminating the ethanol and water; b) a step of simultaneously eliminating the isobutanal and the acetone, by passing the pretreated feedstock from step a) over at least one fixed bed of at least one adsorbent comprising at least one material with a zeolite framework, said material with a zeolite framework being chosen from the group consisting of: zeolites, AlPOs, SAPOs and mixtures thereof; said material with a zeolite framework having at least cages or channels of which at least one opening is defined by a ring comprising at least 10 oxygen atoms ; said step b) being carried out at a temperature of between 0 and 200°C, at a pressure of 0.1 to 10 MPa and with an hourly space velocity (HSV) of the pretreated feedstock from step a) over the fixed bed of between 0.1 and 10 h -1 . a) a pre-treatment step comprising at least a step of eliminating the ethanol and water; b) a step of simultaneously eliminating the isobutanal and the acetone, by passing the pretreated feedstock from step a) over at least one fixed bed of at least one adsorbent comprising at least one material with a zeolite framework, said material with a zeolite framework being chosen from the group consisting of: zeolites, AlPOs, SAPOs and mixtures thereof; said material with a zeolite framework having at least cages or channels of which at least one opening is defined by a ring comprising at least 10 oxygen atoms ; said step b) being carried out at a temperature of between 0 and 200°C, at a pressure of 0.1 to 10 MPa and with an hourly space velocity (HSV) of the pretreated feedstock from step a) over the fixed bed of between 0.1 and 10 h -1 . said material with a zeolite framework being chosen from the group consisting of: zeolites, AlPOs, SAPOs and mixtures thereof; said material with a zeolite framework having at least cages or channels of which at least one opening is defined by a ring comprising at least 10 oxygen atoms ; said step b) being carried out at a temperature of between 0 and 200°C, at a pressure of 0.1 to 10 MPa and with an hourly space velocity (HSV) of the pretreated feedstock from step a) over the fixed bed of between 0.1 and 10 h -1 .
A flow-type hydrogenation apparatus for performing hydrogenation, comprising a heat exchanger, a mixing vessel, one or more hydrogenation reactors, a back pressure regulator, a hydrogen source, and a mass flow controller; the mixing vessel having one or more inlet ports, wherein the or each inlet port is configured to receive therethrough a liquid and/or hydrogen from the hydrogen source, and an outlet port in fluid communication with the one or more hydrogenation reactors, wherein the mixing vessel comprises inert packing material; the mass flow controller being located downstream of the hydrogen source and upstream of the mixing vessel, wherein the mass flow controller is configured to measure and control the hydrogen at a pre-determined flow rate; each one or more hydrogenation reactors having an inlet port in fluid communication with the mixing vessel and an outlet port; the one or more hydrogenation reactors including temperature sensors located at the inlet port and outlet port of the or each hydrogenation reactor to measure the temperature of the liquid composition; the apparatus further including a controller in communication with the temperature sensors and the mass flow controller; each one or more hydrogenation reactors being a packed bed reactor; wherein the heat exchanger is located downstream of the one or more hydrogenation reactors and upstream of the back pressure regulator, wherein the back pressure regulator is configured to limit and precisely control the fluid pressure upstream therefrom. the mixing vessel having one or more inlet ports, wherein the or each inlet port is configured to receive therethrough a liquid and/or hydrogen from the hydrogen source, and an outlet port in fluid communication with the one or more hydrogenation reactors, wherein the mixing vessel comprises inert packing material; the mass flow controller being located downstream of the hydrogen source and upstream of the mixing vessel, wherein the mass flow controller is configured to measure and control the hydrogen at a pre-determined flow rate; each one or more hydrogenation reactors having an inlet port in fluid communication with the mixing vessel and an outlet port; the one or more hydrogenation reactors including temperature sensors located at the inlet port and outlet port of the or each hydrogenation reactor to measure the temperature of the liquid composition; the apparatus further including a controller in communication with the temperature sensors and the mass flow controller; each one or more hydrogenation reactors being a packed bed reactor; wherein the heat exchanger is located downstream of the one or more hydrogenation reactors and upstream of the back pressure regulator, wherein the back pressure regulator is configured to limit and precisely control the fluid pressure upstream therefrom.
An electronic device comprising: a first display configured to display first content; a second display configured to slide on the first display, and display second content; and a processor configured to: display at least one piece of content related to at least one of the first content and the second content on at least one of the first display and the second display, according to overlap between the first display and the second display, incurred by sliding, wherein: when the second display has slid so as to overlap with the first display over a partial area , the processor is configured to display, in the partial area on the second display, guide information indicating a first direction and a second direction , and when the second display has slid in the first direction so as to overlap wholly with the first display or when the second display has slid in the second direction so as to decrease the partial area, the processor is configured to: execute, based on the sliding direction , an application related to the second content, and display an execution screen of the application on at least one of the first display and the second display. a first display configured to display first content; a second display configured to slide on the first display, and display second content; and a processor configured to: display at least one piece of content related to at least one of the first content and the second content on at least one of the first display and the second display, according to overlap between the first display and the second display, incurred by sliding, wherein: when the second display has slid so as to overlap with the first display over a partial area , the processor is configured to display, in the partial area on the second display, guide information indicating a first direction and a second direction , and when the second display has slid in the first direction so as to overlap wholly with the first display or when the second display has slid in the second direction so as to decrease the partial area, the processor is configured to: execute, based on the sliding direction , an application related to the second content, and display an execution screen of the application on at least one of the first display and the second display. when the second display has slid so as to overlap with the first display over a partial area , the processor is configured to display, in the partial area on the second display, guide information indicating a first direction and a second direction , and when the second display has slid in the first direction so as to overlap wholly with the first display or when the second display has slid in the second direction so as to decrease the partial area, the processor is configured to: execute, based on the sliding direction , an application related to the second content, and display an execution screen of the application on at least one of the first display and the second display. execute, based on the sliding direction , an application related to the second content, and display an execution screen of the application on at least one of the first display and the second display.
A scanning display system comprising: a first laser light source to emit first laser light; a second laser light source to emit second laser light; a scanning mirror to reflect and scan the first laser light received from the first laser light source and the second laser light from the second laser light source and to create a visible image on a projection surface ; a photodetector to detect the second laser light reflected off the projection surface ; a time-of-flight - TOF - detection circuit responsive to the photodetector to measure distances from the scanning display system to at least two points of the projection surface ; a mirror actuating circuit to drive the scanning mirror with signals that cause the scanning mirror to deflect through angular extents in two dimensions; and a display size control circuit to modify the angular extents of mirror deflection to maintain a constant display size on the projection surface in response to an averaged value of the measured distances to the at least two points, wherein the display size control circuit is further configured to determine whether the measured distances to the two or more points diverge beyond a threshold value, and only if the measured distances to the two or more points diverge beyond the threshold value, correct for keystone distortion of the created visible image on the projection surface by modifying one or two dimensions of the angular extents in response to the measured distances to the two or more points. a first laser light source to emit first laser light; a second laser light source to emit second laser light; a scanning mirror to reflect and scan the first laser light received from the first laser light source and the second laser light from the second laser light source and to create a visible image on a projection surface ; a photodetector to detect the second laser light reflected off the projection surface ; a time-of-flight - TOF - detection circuit responsive to the photodetector to measure distances from the scanning display system to at least two points of the projection surface ; a mirror actuating circuit to drive the scanning mirror with signals that cause the scanning mirror to deflect through angular extents in two dimensions; and a display size control circuit to modify the angular extents of mirror deflection to maintain a constant display size on the projection surface in response to an averaged value of the measured distances to the at least two points, wherein the display size control circuit is further configured to determine whether the measured distances to the two or more points diverge beyond a threshold value, and only if the measured distances to the two or more points diverge beyond the threshold value, correct for keystone distortion of the created visible image on the projection surface by modifying one or two dimensions of the angular extents in response to the measured distances to the two or more points.
Cartridge for a squeezing device, the cartridge comprising at least one elongate film pouch which is not inherently stiff and which has a chamber for receiving a composition and a head part for interacting with the film pouch , the film pouch having, on a side facing the head part , an opening , which is closed by a cover , the cover having a predetermined breaking region , characterized in that an inherently stiff insert is provided which is connected to the film pouch on the side facing the head part and has a passage , the cover being connected to the insert and closing the passage .
A communication device (100; 100-2; 100-3) comprising: a plurality of communication units , each of the plurality of communication units being configured to generate an encryption key by quantum key distribution with an external communication device, encrypt data by using the generated encryption key, and transmit the data to the external communication device; a dividing module configured to divide data requested to be transmitted by an application into a plurality of pieces of transmission data; and a determination module (124; 124-2; 124-3) configured to determine, from among the plurality of communication units , one or more communication units to be used for transmission of the divided plurality of pieces of the transmission data, characterized in that the determination module (124; 124-2; 124-3) is configured to determine the one or more communication units in such a manner that each of the one or more communication units of which at least one of a generation speed and a residual quantity of the encryption key is larger than that of another communication unit transmits more pieces of the transmission data. a plurality of communication units , each of the plurality of communication units being configured to generate an encryption key by quantum key distribution with an external communication device, encrypt data by using the generated encryption key, and transmit the data to the external communication device; a dividing module configured to divide data requested to be transmitted by an application into a plurality of pieces of transmission data; and a determination module (124; 124-2; 124-3) configured to determine, from among the plurality of communication units , one or more communication units to be used for transmission of the divided plurality of pieces of the transmission data, characterized in that the determination module (124; 124-2; 124-3) is configured to determine the one or more communication units in such a manner that each of the one or more communication units of which at least one of a generation speed and a residual quantity of the encryption key is larger than that of another communication unit transmits more pieces of the transmission data.
A process for obtaining a microbial oil comprising one or more polyunsaturated fatty acids from one or more microbial cells from Mortierella alpina , wherein the process comprises: (a) lysing the cells comprising the microbial oil to form a lysed cell composition; (b) demulsifying the lysed cell composition to form a demulsified lysed cell composition; (c) separating the oil from the demulsified lysed cell composition; and (d) recovering the oil; wherein (b) comprises lowering the pH of the lysed cell composition to from 0.5 to 6. (a) lysing the cells comprising the microbial oil to form a lysed cell composition; (b) demulsifying the lysed cell composition to form a demulsified lysed cell composition; (c) separating the oil from the demulsified lysed cell composition; and (d) recovering the oil;
A device for diagnosing the condition of a fuse or a contact in a contactor, the device comprising a current generator adapted to deliver a pilot current (P) through the fuse or contact to be diagnosed, and a computing/electronic module for verifying if the delivered pilot current (P) flows through the fuse or contact characterized in that the computing/electronic module comprises: - a first sub-module comprising a transformer (T1) adapted to separate potentials between the fuse or contact to be diagnosed and the computing/electronic module; - a second sub-module connected to the first sub-module and adapted for the activation of the transformer (T1) with a suitable waveform through a set of transistors (Q1, Q2); and - a third sub-module connected to the first sub-module and adapted for decoupling the delivered pilot current (P) and possible electrical potentials associated with the fuse or contact to be diagnosed. - a first sub-module comprising a transformer (T1) adapted to separate potentials between the fuse or contact to be diagnosed and the computing/electronic module; - a second sub-module connected to the first sub-module and adapted for the activation of the transformer (T1) with a suitable waveform through a set of transistors (Q1, Q2); and - a third sub-module connected to the first sub-module and adapted for decoupling the delivered pilot current (P) and possible electrical potentials associated with the fuse or contact to be diagnosed.
Motor vehicle with a high-performance working device, with a power take-off , disposed in the drive train of the motor vehicle between the motor vehicle engine and gear box , in order to drive the working device which can be selectively connected and disconnected via a clutch , wherein the power take-off is formed as a fixed transmission between the motor vehicle engine and the gear box , wherein the drive wheel of the fixed transmission is rigidly integrated in the drive train , specifically it is directly coupled to the engine, and wherein the output wheel of the fixed transmission is connected to an output shaft via the clutch , characterised in that the working device , specifically a comminuting device for wood, is attached to the output shaft , and that the transmission of the power take-off is a single-stage transmission.
A coated metal foil for forming a copper-containing interlayer between a first solid substrate and a second solid substrate or between a solid substrate and the metal foil, wherein the coated metal foil comprises or consists of a metal foil of copper or of a first copper alloy or of a copper plated nickel-iron alloy, wherein the metal foil has a first surface and a second surface, and a composition coated on the first surface and/or the second surface of the metal foil, wherein the composition comprises or consists of the following components: an organic binder and flakes of copper, of the first copper alloy or of a second copper alloy, wherein the flakes comprise internal pores, wherein the total weight of the flakes in relation to the total weight of the composition is in a range of 10 wt.% to 80 wt.%, wherein the flakes have a mean intraparticle pore density in a range of 2 internal pores/μm 2 to 40 internal pores/μm 2 in an arbitrary section through any of the flakes, wherein the metal foil has a thickness of at least 5 μm and at most 200 μm, wherein the composition is coated on the first surface and/or the second surface of the metal foil in each case independently from each other in a thickness of at least 1 μm and at most 500 μm.