mhurhangee/ep-ind-claims huggingface dataset:
A method for producing an image of a sample using a light microscopy apparatus including imaging optics and an image sensor, comprising the following steps: acquiring a sequence of individual images by sequentially imaging the sample through the imaging optics onto the image sensor, the sample being provided, for the acquisition of each individual image, with a marker pattern, in which individual markers can be imaged in the form of spatially separable light distributions through the imaging optics onto the image sensor, determining centroid positions (84, 86, 88) of the light distributions, which represent the imaged markers in the respective individual images, superimposing the determined centroid positions (84, 86, 88) to form a complete image of the sample, and correcting the determined centroid positions on the basis of a drift value, characterized in that an image-drift-inducing temperature value (ΔT 1, ΔT 2,..., ΔT n) is measured by means of a temperature sensor (50, 52,..., 60) and stored in a storage module during the acquisition of the sequence of individual images, and the drift value in the form of a temperature-dependent drift value (ΔX 1, ΔX 2,..., ΔX n; ΔY 1, ΔY 2,..., ΔY n) is correlated to the image-drift-inducing temperature value (ΔT 1, ΔT 2,..., ΔT n) based on predetermined correlation data, the determined centroid positions (84, 86, 88) are corrected based on the drift value (ΔX 1, ΔX 2,..., ΔX n; ΔY 1, ΔY 2,..., ΔY n) by way of calculation. acquiring a sequence of individual images by sequentially imaging the sample through the imaging optics onto the image sensor, the sample being provided, for the acquisition of each individual image, with a marker pattern, in which individual markers can be imaged in the form of spatially separable light distributions through the imaging optics onto the image sensor, determining centroid positions (84, 86, 88) of the light distributions, which represent the imaged markers in the respective individual images, superimposing the determined centroid positions (84, 86, 88) to form a complete image of the sample, and correcting the determined centroid positions on the basis of a drift value, characterized in that an image-drift-inducing temperature value (ΔT 1, ΔT 2,..., ΔT n) is measured by means of a temperature sensor (50, 52,..., 60) and stored in a storage module during the acquisition of the sequence of individual images, and the drift value in the form of a temperature-dependent drift value (ΔX 1, ΔX 2,..., ΔX n; ΔY 1, ΔY 2,..., ΔY n) is correlated to the image-drift-inducing temperature value (ΔT 1, ΔT 2,..., ΔT n) based on predetermined correlation data, the determined centroid positions (84, 86, 88) are corrected based on the drift value (ΔX 1, ΔX 2,..., ΔX n; ΔY 1, ΔY 2,..., ΔY n) by way of calculation.
Compound defined by general formula: ABZ 1 -Leu 2 -Glu 3 -Pro 4 -Val 5 -X 6, where: ABZ denotes 2-aminobenzoic acid, X denotes ANB-NH 2 or pNA, wherein ANB-NH 2 denotes 5-amino-2-benzoic acid, pNA denotes 4-nitroaniline.
A method for displaying a menu in a mobile terminal, wherein at least two three-dimensional tile-type menu icons (201, 202, 203) are displayed on a display unit, the menu icons (201, 202, 203) each having a display surface and a rear surface, the method comprising: displaying a first menu on the display surface of each of the menu icons (201, 202, 203), said first menus being different from one another; receiving user input on the display unit on which the menu icons (201, 202, 203) are displayed; and flipping each of the menu icons (201, 202, 203) in response to the user input to thereby display the rear surface of each menu icon, wherein the rear surface of each menu icon (201, 202, 203) is a blank surface. displaying a first menu on the display surface of each of the menu icons (201, 202, 203), said first menus being different from one another; receiving user input on the display unit on which the menu icons (201, 202, 203) are displayed; and flipping each of the menu icons (201, 202, 203) in response to the user input to thereby display the rear surface of each menu icon, wherein the rear surface of each menu icon (201, 202, 203) is a blank surface.
Rotary-drum laundry dryer comprising a cabinet containing a revolving drum structured for housing the laundry to be dried, a hot-air generator structured to circulate a stream of hot air through said revolving drum, and a lower supporting base which is structured for resting on the floor and for housing at least part of the hot-air generator; the hot-air generator in turn comprising: an air recirculating conduit having its two ends connected to the revolving drum; air circulating means which are located along the air recirculating conduit and are structured to produce, inside the air recirculating conduit, an airflow (f) which flows through the revolving drum and over the laundry inside the drum; the lower supporting base comprising a front cavity provided in a front portion of the lower supporting base beneath a porthole door that gives access to the revolving drum, said front cavity being divided into a first front chamber and a second front chamber, the first front chamber giving at least partial access to a portion of the hot-air generator and being occupied by an air filter able to retain fluff and dust present in the air recirculating conduit, the second front chamber housing a cooling fan assembly which comprises a box-shaped supporting structure provided with a fan rotated on a horizontal axis by means of an electric motor integrated in the supporting structure thereby forming a cartridge to be inserted into the front chamber, said front chamber being closed by a first protection covering element which covers the fan assembly; the rotary-drum laundry dryer being characterized in that it comprises a second protection covering element for further protecting said cooling fan assembly, said second protection covering element being superposed to said first protection covering element.
A centrifugal separator for separation of particles from a gas stream, comprising a frame comprising a first frame portion, a gas inlet and a gas outlet arranged in the first frame portion, a centrifugal rotor arranged to be rotatable in the frame around a rotational axis (x) and comprising a separating member (6, 27, 28, 29), a central gas chamber in the rotor communicating with a radially inner portion of the separating member and the gas outlet, a space surrounding the rotor and communicating with a radially outer portion of the separation member and the gas inlet, drive means providing rotation of the centrifugal rotor for separating particles from the gas stream being conducted from the space surrounding the rotor, through the separation member and towards the central gas chamber, characterized in that a ring-formed sealing arranged between and in sealingly contact with the first frame portion and the centrifugal rotor, wherein the ring-formed sealing has an inner surface facing the space and an outer surface facing the outlet and runs free in a groove in either the rotor or in the first frame portion with a small clearance, and wherein the groove or the sealing has a cross section that enables the pressure in the space surrounding the rotor to act on said inner surface and partly on said outer surface.
A machining method comprising steps of: rotating a cutter in one direction around the axis, the cutter having a plurality of blade parts disposed side by side along the axis thereof, in one direction around the axis, each blade part being formed in the respective shape of a ring around a peripheral surface of the cutter, as well as reciprocating the cutter relative to a workpiece along the axis; rotating the workpiece in a forward direction, when the cutter is moving in one of the directions along the axis, and rotating the workpiece in a reverse direction, when the cutter is moving in the other direction along the axis, in accordance with reciprocation of the cutter; and cutting the workpiece so as to form thereon an external shape of a gear or a shaft having a gear-shaped cross-section by placing each of the blade parts of the cutter in contact with the peripheral surface of the workpiece. rotating a cutter in one direction around the axis, the cutter having a plurality of blade parts disposed side by side along the axis thereof, in one direction around the axis, each blade part being formed in the respective shape of a ring around a peripheral surface of the cutter, as well as reciprocating the cutter relative to a workpiece along the axis; rotating the workpiece in a forward direction, when the cutter is moving in one of the directions along the axis, and rotating the workpiece in a reverse direction, when the cutter is moving in the other direction along the axis, in accordance with reciprocation of the cutter; and cutting the workpiece so as to form thereon an external shape of a gear or a shaft having a gear-shaped cross-section by placing each of the blade parts of the cutter in contact with the peripheral surface of the workpiece.
A method for improved positioning accuracy of a User Equipment operating in a mobile communication system including a plurality of base stations and a Location Server, the method comprising: receiving, from the plurality of base stations, Positioning Reference Signals, PRS, within an operating bandwidth of the User Equipment (204, 206) around a Direct Current sub-carrier; receiving, from the plurality of base stations, non-PRSs within the operating bandwidth of the User Equipment (204, 206) around the Direct Current sub-carrier; determining a PRS positioning measurement at the User Equipment (204, 206) for the plurality of base stations based on the PRSs received; determining a non-PRS positioning measurement at the User Equipment (204, 206) for the plurality of base stations based on the non-PRSs received; and transmitting, by the User Equipment (204, 206) via the mobile communication system to the Location Server, the non-PRS positioning measurement associated with the plurality of base stations. receiving, from the plurality of base stations, Positioning Reference Signals, PRS, within an operating bandwidth of the User Equipment (204, 206) around a Direct Current sub-carrier; receiving, from the plurality of base stations, non-PRSs within the operating bandwidth of the User Equipment (204, 206) around the Direct Current sub-carrier; determining a PRS positioning measurement at the User Equipment (204, 206) for the plurality of base stations based on the PRSs received; determining a non-PRS positioning measurement at the User Equipment (204, 206) for the plurality of base stations based on the non-PRSs received; and transmitting, by the User Equipment (204, 206) via the mobile communication system to the Location Server, the non-PRS positioning measurement associated with the plurality of base stations.
Reinforcing sleeve for a central double actuating cylinder of a double clutch, having at least the following components: - a reinforcing shell for a central double actuating cylinder, the double actuating cylinder comprising an outer pressure chamber, an inner pressure chamber and a piston opening side; and - a positioning edge which is set up to ensure a predefined setpoint position of the reinforcing sleeve relative to the double actuating cylinder in the mounted state, the fitted reinforcing sleeve being set up to support an outer pressure chamber of a double actuating cylinder circumferentially and radially to the outside, - a reinforcing shell for a central double actuating cylinder, the double actuating cylinder comprising an outer pressure chamber, an inner pressure chamber and a piston opening side; and - a positioning edge which is set up to ensure a predefined setpoint position of the reinforcing sleeve relative to the double actuating cylinder in the mounted state,
A method for identifying a motor type of a multi-phase motor, the method comprising applying voltage pulses to each phase of the motor in turn, characterized in that the voltage pulses include a positive voltage pulse and a negative voltage pulse for each phase of the motor, the method further comprising: determining a current rise-time for each applied voltage pulse by measuring a time taken for the current to rise to a predetermined level in response to the application of the respective voltage pulse; and determining the motor type depending on the measured current rise-times wherein determining the motor type comprises determining whether the current rise-time for each phase of the motor is equal for the positive applied voltage pulse and the negative applied voltage pulse for that phase and, if so, identifying that the motor type is a synchronous reluctance motor. determining a current rise-time for each applied voltage pulse by measuring a time taken for the current to rise to a predetermined level in response to the application of the respective voltage pulse; and determining the motor type depending on the measured current rise-times wherein determining the motor type comprises determining whether the current rise-time for each phase of the motor is equal for the positive applied voltage pulse and the negative applied voltage pulse for that phase and, if so, identifying that the motor type is a synchronous reluctance motor.
An apparatus for studying chemical processes, having: an oven having at least one oven chamber, a stacked plate reactor having a multitude of mutually adjacent plate-shaped building blocks (21, 22, 23, 24) and at least one feed (20a, 20b) for a reactant and at least one drain (20c, 20d) for a product, and a connection device for connection of the stacked plate reactor to at least one oven-side feed for a reactant and at least one oven-side drain for a product, wherein the oven chamber has a receiving device configured such that it can accommodate the multitude of mutually adjacent shaped building blocks (21, 22, 23, 24) of the stacked plate reactor, wherein the multitude of shaped building blocks (21, 22, 23, 24) of the stacked plate reactor in the receiving device are stacked one on top of another in such a way that they form a multitude of reactor chambers each with a feed (30a, 30b) for a reactant and at least one drain (30c, 30d) for a product, and one of a reactive device and a nonreactive device that each form an individual reactor, wherein the receiving device has a press device configured such that it can compress the multitude of shaped building blocks (21, 22, 23, 24), stacked one on top of another, of the stacked plate reactor in stacking direction, wherein the multitude of reactor chambers may electively be connected in parallel and/or in series. an oven having at least one oven chamber, a stacked plate reactor having a multitude of mutually adjacent plate-shaped building blocks (21, 22, 23, 24) and at least one feed (20a, 20b) for a reactant and at least one drain (20c, 20d) for a product, and a connection device for connection of the stacked plate reactor to at least one oven-side feed for a reactant and at least one oven-side drain for a product, wherein the oven chamber has a receiving device configured such that it can accommodate the multitude of mutually adjacent shaped building blocks (21, 22, 23, 24) of the stacked plate reactor, wherein the multitude of shaped building blocks (21, 22, 23, 24) of the stacked plate reactor in the receiving device are stacked one on top of another in such a way that they form a multitude of reactor chambers each with a feed (30a, 30b) for a reactant and at least one drain (30c, 30d) for a product, and one of a reactive device and a nonreactive device that each form an individual reactor, wherein the receiving device has a press device configured such that it can compress the multitude of shaped building blocks (21, 22, 23, 24), stacked one on top of another, of the stacked plate reactor in stacking direction, wherein the multitude of reactor chambers may electively be connected in parallel and/or in series.
A transmission gearbox comprising, housed at least partially inside said box, a so-called output shaft made as a single piece or as at least two coaxial shaft sections (6A, 6B), a rotary so-called drive member mounted free to rotate on said shaft, a drive system for rotationally driving said rotary drive member in a first, so-called forward-running, rotationally driven direction and in a second, so-called reverse-running, rotationally driven direction and, positioned between the shaft or each of the shaft sections (6A, 6B) and the rotary drive member, a clutch mechanism (3, 4), the or each clutch mechanism (3, 4) housed inside the transmission gearbox having a disengaged state and an engaged state, the shaft or each shaft section (6A; 6B) being, when the corresponding clutch mechanism (3, 4) is in the disengaged state, free to rotate in either one of its directions of rotation, the or each so-called automatic clutch mechanism (3, 4) being configured so that, when the rotary drive member is rotationally driven in the first so-called forward-running rotationally driven direction, said clutch mechanism passes from the disengaged state to the engaged state when the rotational speed of said rotary drive member is greater than that of the shaft or of said shaft section (6A; 6B) with which the clutch mechanism (3, 4) is intended to collaborate, and from the engaged state to the disengaged state by the forward-running rotational driving of the shaft or of the shaft section (6A; 6B) with which the clutch mechanism collaborates, when the rotational speed of the shaft or of said shaft section (6A; 6B) is greater than the rotational speed of the rotary drive member, characterized in that the or each so-called automatic clutch mechanism (3, 4) is a clutch mechanism (3, 4) with two directions of operation and is further configured so that, when the rotary drive member is rotationally driven in the second so-called reverse-running rotationally driven direction, said clutch mechanism passes from the disengaged state to the engaged state when the rotational speed of said rotary drive member is greater than that of the shaft or of said shaft section (6A; 6B) with which the clutch mechanism (3, 4) is designed to collaborate, and from the engaged state to the disengaged state by the reverse-running rotational driving of the shaft or of the shaft section (6A; 6B) with which the clutch mechanism (3, 4) collaborates when the rotational speed of the shaft or of said shaft section (6A; 6B) is greater than the rotational speed of the rotary drive member.
A pharmaceutical combination for use in a method for the prevention, delay of progression or treatment of cancer, comprising a PARP inhibitor, and an immune checkpoint inhibitor or a chemotherapeutic agent, wherein the PARP inhibitor is a compound of Formula, or a pharmaceutically acceptable salt thereof, or a solvate thereof, and wherein the immune checkpoint inhibitor is an anti-PD-1 monoclonal antibody or fragment thereof that specifically binds to human PD-1, wherein the antibody or fragment thereof comprises a heavy chain variable region (Vh) and a light chain variable region, wherein the Vh comprises SEQ ID NO: 31(CDR1-H1), ID NO: 32(CDR2-H2), and ID NO: 33(CDR3-H3) respectively; and the V1 comprises SEQ ID NO: 34(CDR1-L1), SEQ ID NO: 35(CDR2-L2), and SEQ ID NO: 36(CDR3-L3), respectively; and wherein the chemotherapeutic agent is selected from paclitaxel, or etopside plus carboplatin (E/C). or a pharmaceutically acceptable salt thereof, or a solvate thereof, and wherein the immune checkpoint inhibitor is an anti-PD-1 monoclonal antibody or fragment thereof that specifically binds to human PD-1, wherein the antibody or fragment thereof comprises a heavy chain variable region (Vh) and a light chain variable region, wherein the Vh comprises SEQ ID NO: 31(CDR1-H1), ID NO: 32(CDR2-H2), and ID NO: 33(CDR3-H3) respectively; and the V1 comprises SEQ ID NO: 34(CDR1-L1), SEQ ID NO: 35(CDR2-L2), and SEQ ID NO: 36(CDR3-L3), respectively; and wherein the chemotherapeutic agent is selected from paclitaxel, or etopside plus carboplatin (E/C).
A mobile radio communication terminal device comprising: a receiver configured to receive one or more wireless signals from one or more mobile radio cells; and a first circuit (410, 412) configured to determine a signal quality of a synchronization sequence for the one or more mobile radio cells contained in the one or more wireless signals and a second circuit configured to further evaluate a mobile radio cell when its synchronization sequence signal quality is determined by the first circuit (410, 412) to be above a threshold. a receiver configured to receive one or more wireless signals from one or more mobile radio cells; and a first circuit (410, 412) configured to determine a signal quality of a synchronization sequence for the one or more mobile radio cells contained in the one or more wireless signals and a second circuit configured to further evaluate a mobile radio cell when its synchronization sequence signal quality is determined by the first circuit (410, 412) to be above a threshold.
A method of controlling non-therapeutic lighting to tailor the lighting to multiple users, comprising: providing first lighting having first light output characteristics to a first area in a room and providing second lighting having second light output characteristics to a second area in said room (300, 305); wherein said first lighting and said second lighting are distinct; and identifying lighting needs of a first user for said first light output characteristics and identifying lighting needs of a second user for said second light output characteristics; characterized in that the method further comprises: directing, via a personal device of said first user, said first user to said first area based on identifying said lighting needs of said first user for said first light output characteristics, and directing, via a personal device of said second user, said second user to said second area based on identifying said lighting needs of said second user for said second light output characteristics; wherein said personal devices of said users are in communication with a controller configured to control said first lighting and said second lighting. providing first lighting having first light output characteristics to a first area in a room and providing second lighting having second light output characteristics to a second area in said room (300, 305); wherein said first lighting and said second lighting are distinct; and identifying lighting needs of a first user for said first light output characteristics and identifying lighting needs of a second user for said second light output characteristics; characterized in that the method further comprises: directing, via a personal device of said first user, said first user to said first area based on identifying said lighting needs of said first user for said first light output characteristics, and directing, via a personal device of said second user, said second user to said second area based on identifying said lighting needs of said second user for said second light output characteristics; wherein said personal devices of said users are in communication with a controller configured to control said first lighting and said second lighting. directing, via a personal device of said first user, said first user to said first area based on identifying said lighting needs of said first user for said first light output characteristics, and directing, via a personal device of said second user, said second user to said second area based on identifying said lighting needs of said second user for said second light output characteristics; wherein said personal devices of said users are in communication with a controller configured to control said first lighting and said second lighting.