mhurhangee/ep-ind-claims huggingface dataset:
An endoscope apparatus comprising: one or more endoscopes each of which includes an imaging device (2741, 2841, 2941) on a distal end portion of a tubular housing, the one or more endoscopes configured to obtain an image in a body of a subject, the imaging device (2741, 2841, 2941) having an optical axis having a predetermined angle with a rotation axis of the distal end portion of the tubular housing, the rotation axis extending in a direction identical to a longitudinal direction of the tubular housing and the imaging device being inclined with respect to the rotation axis; one or more endoscope arms (27, 28, 29) each of which includes a plurality of joints (272 - 273, 282 - 283, 292 - 293) and a plurality of position detectors corresponding to respective plural joints, and is configured to hold the respective endoscope, and a controller (211, 215, 215) configured to process a plurality of images obtained by the one or more endoscopes, the plurality of images are obtained by the imaging device by rotating the distal end portion of the tubular housing of the endoscope, a rotation driver configured to rotate at least the distal end portion of the tubular housing of the one or more endoscopes, wherein the controller (211, 215, 215) uses position information of the imaging device and feature points of the respective images obtained by the imaging device (2741, 2841, 2941) of the one or more endoscope arms (27, 28, 29) to join the respective images together, to generate a composite image, the position information being obtained by the position detectors. one or more endoscopes each of which includes an imaging device (2741, 2841, 2941) on a distal end portion of a tubular housing, the one or more endoscopes configured to obtain an image in a body of a subject, the imaging device (2741, 2841, 2941) having an optical axis having a predetermined angle with a rotation axis of the distal end portion of the tubular housing, the rotation axis extending in a direction identical to a longitudinal direction of the tubular housing and the imaging device being inclined with respect to the rotation axis; one or more endoscope arms (27, 28, 29) each of which includes a plurality of joints (272 - 273, 282 - 283, 292 - 293) and a plurality of position detectors corresponding to respective plural joints, and is configured to hold the respective endoscope, and a controller (211, 215, 215) configured to process a plurality of images obtained by the one or more endoscopes, the plurality of images are obtained by the imaging device by rotating the distal end portion of the tubular housing of the endoscope, a rotation driver configured to rotate at least the distal end portion of the tubular housing of the one or more endoscopes, wherein the controller (211, 215, 215) uses position information of the imaging device and feature points of the respective images obtained by the imaging device (2741, 2841, 2941) of the one or more endoscope arms (27, 28, 29) to join the respective images together, to generate a composite image, the position information being obtained by the position detectors.
A population of pancreatic endocrine progenitor cells, for use in a method for improvement of glycemic control in a subject with Type 2 diabetes (T2D), for treating obesity in a subject, for treating obesity in a subject with T2D, for treating glucose intolerance in a subject with T2D or for treating insulin resistance in a subject with T2D, the method comprising: (a) implanting a population of pancreatic endocrine progenitor cells into the subject; and (b) maturing in vivo the population of pancreatic endocrine progenitor cells to produce a population comprising at least 2% pancreatic endocrine cells; wherein the treating obesity in a subject or the treating obesity in a subject with T2D further comprises treating the subject with one or more anti-diabetic drugs selected from small molecule dipeptidyl-peptidase 4 (DPP-4) inhibitors and biguanides. (a) implanting a population of pancreatic endocrine progenitor cells into the subject; and (b) maturing in vivo the population of pancreatic endocrine progenitor cells to produce a population comprising at least 2% pancreatic endocrine cells;
Actuating device for a valve of a beverage filling system, preferably for a product valve or a gas valve of a filling member, comprising at least one rotor which is moveable in one direction of movement and has at least one rotor magnet (24, 260, 280) and is intended for driving the valve, and at least one actuator which has at least one actuator magnet (320, 340, 360) and is intended for triggering the movement of the rotor, wherein the at least one actuator is moveable in an actuator plane, which is arranged perpendicularly to the direction of movement of the at least one rotor, for triggering the movement of the rotor, characterized in that the at least one actuator and/or the at least one rotor have/has at least two magnets (260, 280, 360) which lie next to each other and are in each case oriented in an opposed manner, wherein the magnets (260, 280, 360) which are arranged next to each other form a plane lying parallel to the actuator plane.
An in-body image capturing device comprising an image capturing unit that includes a lens, and an illumination unit, the in-body image capturing device being capable of being introduced into a body, wherein the image capturing unit and the illumination unit are housed in a casing that is integrally molded with an integral light-transmitting body and an integral light shielding body, the casing includes an illumination cover portion that covers the illumination unit, a lens cover portion that covers the lens, and a lens surrounding portion that surrounds the lens, the illumination cover portion and the lens cover portion are configured with the light-transmitting body, and the lens surrounding portion is configured with the light shielding body, and the lens surrounding portion has a portion that is positioned between the illumination cover portion and the lens cover portion.
An electric power tool comprising a non-contact torque measuring device, a motor received within a housing, further comprising a motor shaft driving a drive shaft for driving a tool, further comprising a first coil that is stationary received and a second coil that is received at the drive shaft or at the motor shaft and that is coupled with a torque sensor, characterized in that the two coils (44, 46) are inductively coupled with each other for bi-directional energy transfer, by transmitting a carrier signal via the two coils (44, 46) that is modulated with a frequency that is representative for the output signal of the torque sensor for providing the torque sensor with energy by means of the carrier signal, and for transmitting an output signal of the torque sensor by means of the carrier signal of the second coil onto the first coil and for evaluating to generate a torque output signal.
A method of producing moulded parts of glass by injection moulding, comprising the steps: providing molten glass outside of a casting cylinder, transferring the molten glass into the casting cylinder, heating the molten glass in the casting cylinder, conveying the molten glass into a mould by pressurisation via a nozzle channel, wherein the molten glass to be conveyed into the mould is subjected to a low pressure of a maximum of 10 bar, and the molten glass is heated such that it, when exiting the nozzle channel, has at least the temperature at the operating point of the molten glass and thus a viscosity of a maximum of 10 3 Pa·s, automatic removal of the filled mould, tempering the moulded part of glass in the mould directly after completion of the step of conveying the molten glass into the mould for attaining a substantially tension-free moulded part of glass, automatic feeding of an empty mould to the nozzle channel. providing molten glass outside of a casting cylinder, transferring the molten glass into the casting cylinder, heating the molten glass in the casting cylinder, conveying the molten glass into a mould by pressurisation via a nozzle channel, wherein the molten glass to be conveyed into the mould is subjected to a low pressure of a maximum of 10 bar, and the molten glass is heated such that it, when exiting the nozzle channel, has at least the temperature at the operating point of the molten glass and thus a viscosity of a maximum of 10 3 Pa·s, the molten glass to be conveyed into the mould is subjected to a low pressure of a maximum of 10 bar, and the molten glass is heated such that it, when exiting the nozzle channel, has at least the temperature at the operating point of the molten glass and thus a viscosity of a maximum of 10 3 Pa·s, automatic removal of the filled mould, tempering the moulded part of glass in the mould directly after completion of the step of conveying the molten glass into the mould for attaining a substantially tension-free moulded part of glass, automatic feeding of an empty mould to the nozzle channel.
A flexible container device comprising: a rigid container top having a port configured to receive a welding anvil; a rigid container bottom; a flexible reservoir panel having a first open end and a second open end, wherein the reservoir panel is attached at the first open end to the rigid container top, wherein the reservoir panel is attached at the second open end to the rigid container bottom, wherein the rigid container top is attached to a terminal top edge of the flexible reservoir panel at a top seam; wherein the reservoir panel is attached to itself at a first seam, a second seam, and a third seam, wherein the third seam overlaps the first seam and the second seam, wherein the third seam seals a seam gap between a terminal bottom edge of the first seam and a terminal top edge of the second seam, and wherein the seam gap is configured to receive a welding anvil; a fourth seam between the reservoir panel and the rigid container bottom, wherein the fourth seam is formed around the complete perimeter of the reservoir panel and the rigid container bottom; and a cap rotatably and removably attached to the rigid container top. a rigid container top having a port configured to receive a welding anvil; a rigid container bottom; a flexible reservoir panel having a first open end and a second open end, wherein the reservoir panel is attached at the first open end to the rigid container top, wherein the reservoir panel is attached at the second open end to the rigid container bottom, wherein the rigid container top is attached to a terminal top edge of the flexible reservoir panel at a top seam; wherein the reservoir panel is attached to itself at a first seam, a second seam, and a third seam, wherein the third seam overlaps the first seam and the second seam, wherein the third seam seals a seam gap between a terminal bottom edge of the first seam and a terminal top edge of the second seam, and wherein the seam gap is configured to receive a welding anvil; a fourth seam between the reservoir panel and the rigid container bottom, wherein the fourth seam is formed around the complete perimeter of the reservoir panel and the rigid container bottom; and a cap rotatably and removably attached to the rigid container top.
Arrangement for an extracorporeal circuit support (ECLS) of a patient with a blood pump and pump control unit, wherein the arrangement has an oxygenator which is supplied by the blood pump, wherein the blood pump is arranged in the direction of flow upstream of the oxygenator, and wherein the arrangement has a computer that converts a control signal into a pump actuating signal, wherein the pump actuating signal produces a wave-like surging and subsiding pump output for a pulsatile flow, wherein the arrangement has an ECG with a clock generator which provides the control signal, and wherein software with the ability to record an ECG signal is integrated into the control unit of the arrangement, which records the ECG signal of the patient by means of a patient cable for generating the control signal, characterized in that the clock generator is the recorded R wave of an ECG of the patient causing delivery of a software trigger for starting the blood pump which then generates the pulse, such that the software ensures the delivery of the pulse during the diastole of the cardiac cycle of the patient.
A shoe, comprising: an upper, the shoe upper further including a base material, the upper comprising: a lateral side and a medial side; a toe box portion; an ankle portion (180; 190) wherein the ankle portion (180; 190) includes at least one stress point; a heel support spanning from the medial side to the lateral side of the upper; and a sole structure; wherein the heel support wraps around a heel of the upper, wherein the heel support is overlaid on the base material; wherein the ankle portion (180; 190) includes at least one weld zone (132, 178, 1540); wherein the toe box portion of the shoe upper further includes a first and second weld zone (120, 124); wherein the first weld zone includes at least two welds that extend radially across a top of the toe box portion of the shoe upper from the lateral side to the medial side of the shoe upper spanning across a lateral direction of the shoe upper; wherein a second weld zone includes at least two welds that cross each other at an intersection disposed within the second weld zone; wherein the ankle portion (180; 190) includes additional material on the medial side of the upper; wherein the additional material is in a form of an ankle strap; wherein the ankle strap is overlaid on the base material; and wherein the lateral side of the upper lacks the additional material in the form of an ankle strap. an upper, the shoe upper further including a base material, the upper comprising: a lateral side and a medial side; a toe box portion; an ankle portion (180; 190) wherein the ankle portion (180; 190) includes at least one stress point; a heel support spanning from the medial side to the lateral side of the upper; and a lateral side and a medial side; a toe box portion; an ankle portion (180; 190) wherein the ankle portion (180; 190) includes at least one stress point; a heel support spanning from the medial side to the lateral side of the upper; and a sole structure; wherein the heel support wraps around a heel of the upper, wherein the heel support is overlaid on the base material; wherein the ankle portion (180; 190) includes at least one weld zone (132, 178, 1540); wherein the toe box portion of the shoe upper further includes a first and second weld zone (120, 124); wherein the first weld zone includes at least two welds that extend radially across a top of the toe box portion of the shoe upper from the lateral side to the medial side of the shoe upper spanning across a lateral direction of the shoe upper; wherein a second weld zone includes at least two welds that cross each other at an intersection disposed within the second weld zone; wherein the ankle portion (180; 190) includes additional material on the medial side of the upper; wherein the additional material is in a form of an ankle strap; wherein the ankle strap is overlaid on the base material; and wherein the lateral side of the upper lacks the additional material in the form of an ankle strap.
A method of reducing in vitro genotoxicity of a pollen extract which comprises the step consisting of reducing the amount of a flavonoid in the pollen extract by ultrafiltration of the pollen extract performed on a 1-10 kDa membrane with at least 5 volumes of an ammonium bicarbonate solution, and a step of sterile filtration on a 0.22μm filter.
Method for managing the state of charge of a traction battery of a rechargeable hybrid vehicle, comprising a hybrid power train of the type comprising a combustion engine and an electric motor/generator intended simultaneously or independently to provide propulsion, said battery being capable of operating in a first operating mode over a state-of-charge range (CD_Mode), the amplitude of which is bounded by a predetermined maximum state-of-charge value (BSOC_Max_CD) and a predetermined minimum state-of-charge value (BSOC_Min_CD), in which the battery supplies all of the power necessary for propulsion, and a second operating mode, in which the state of charge of the battery is constantly kept substantially around an equilibrium state-of-charge value, said method comprising steps of: - estimating a state of ageing of the battery, - comparing the estimated state of ageing of the battery in relation to a given state-of-ageing threshold, and - reducing the amplitude of the state-of-charge range (CD_Mode) linked to the first operating mode when the state of ageing of the battery rises above the given state-of-ageing threshold, the method being characterized in that the amplitude of the state-of-charge range (CD_Mode) linked to the first operating mode is reduced progressively, depending on the state of ageing, down to a zero amplitude, by making said predetermined maximum state-of-charge value (BSOC _Max_CD) and said predetermined minimum state-of-charge value (BSOC_Min_CD) converge towards one another, so that the battery operates exclusively in the second operating mode when the zero amplitude of the state-of-charge range linked to the first operating mode is reached. - estimating a state of ageing of the battery, - comparing the estimated state of ageing of the battery in relation to a given state-of-ageing threshold, and - reducing the amplitude of the state-of-charge range (CD_Mode) linked to the first operating mode when the state of ageing of the battery rises above the given state-of-ageing threshold,
Multi-rotor drone (1, 11, 21), the drone (1, 11, 21) including: • a support frame (2, 12), • at least two propulsion and/or lifting rotors (4, 14, 24, 34), rotatable independently of each other in relation to the support frame (2, 12), the at least two rotors (4, 14, 24, 34) being positioned alongside each other in a plane P, • a continuous peripheral protection (5, 15) laterally protecting the at least two rotors (4, 14, 24, 34) at the time of a collision of the drone (1, 11, 21) with an obstacle positioned laterally in relation to an elevation direction Z, the elevation direction Z being positioned perpendicularly to the plane P, the continuous peripheral protection (5, 15) including a peripheral external wall (6, 16) able to elastically distort under the effect of a reactive force F exerted by the obstacle on the peripheral external wall (6, 16) at the time of the collision, and • at least two distortion sensors (7, 17, 27, 37) positioned at the peripheral external wall (6, 16), each distortion sensor (7, 17, 27, 37) being able to take measurements that vary according to the level of distortion of the peripheral external wall (6, 16), characterised in that the drone (1, 11, 21) includes: • a processing unit connected to the at least two distortion sensors (7, 17, 27, 37), the processing unit being configured to determine, from the measurements from each distortion sensor (7, 17, 27, 37), a position of impact of the said reactive force F, and • a control device (9, 19) for generating command instructions for the at least two rotors (4, 14, 24, 34), the commands being generated dependent on the position of impact. • a support frame (2, 12), • at least two propulsion and/or lifting rotors (4, 14, 24, 34), rotatable independently of each other in relation to the support frame (2, 12), the at least two rotors (4, 14, 24, 34) being positioned alongside each other in a plane P, • a continuous peripheral protection (5, 15) laterally protecting the at least two rotors (4, 14, 24, 34) at the time of a collision of the drone (1, 11, 21) with an obstacle positioned laterally in relation to an elevation direction Z, the elevation direction Z being positioned perpendicularly to the plane P, the continuous peripheral protection (5, 15) including a peripheral external wall (6, 16) able to elastically distort under the effect of a reactive force F exerted by the obstacle on the peripheral external wall (6, 16) at the time of the collision, and • at least two distortion sensors (7, 17, 27, 37) positioned at the peripheral external wall (6, 16), each distortion sensor (7, 17, 27, 37) being able to take measurements that vary according to the level of distortion of the peripheral external wall (6, 16), • a processing unit connected to the at least two distortion sensors (7, 17, 27, 37), the processing unit being configured to determine, from the measurements from each distortion sensor (7, 17, 27, 37), a position of impact of the said reactive force F, and • a control device (9, 19) for generating command instructions for the at least two rotors (4, 14, 24, 34), the commands being generated dependent on the position of impact.
A system comprising: an input transformer configured to electrically couple to a power grid; an input inductor electrically coupled to the input transformer; a rectifier electrically coupled to the input inductor; an inverter electrically coupled to the rectifier; an output inductor electrically coupled to the inverter; an output transformer electrically coupled to the output inductor and configured to electrically couple to the power grid; and control circuitry configured to: receive a desired active power, P, and a desired reactive power, Q, associated with a test of the system, determine one or more gate drive signals based on the desired P and Q, and begin execution of the test by communicating the one or more gate drive signals to a first set of switches in the rectifier, a second set of switches in the inverter, or a combination thereof, wherein the rectifier, the inverter, or the combination thereof, is configured to operate under a simulated load that corresponds to the desired P and Q based on the gate drive signals. an input transformer configured to electrically couple to a power grid; an input inductor electrically coupled to the input transformer; a rectifier electrically coupled to the input inductor; an inverter electrically coupled to the rectifier; an output inductor electrically coupled to the inverter; an output transformer electrically coupled to the output inductor and configured to electrically couple to the power grid; and control circuitry configured to: receive a desired active power, P, and a desired reactive power, Q, associated with a test of the system, determine one or more gate drive signals based on the desired P and Q, and begin execution of the test by communicating the one or more gate drive signals to a first set of switches in the rectifier, a second set of switches in the inverter, or a combination thereof, wherein the rectifier, the inverter, or the combination thereof, is configured to operate under a simulated load that corresponds to the desired P and Q based on the gate drive signals. receive a desired active power, P, and a desired reactive power, Q, associated with a test of the system, determine one or more gate drive signals based on the desired P and Q, and