mhurhangee/ep-ind-claims huggingface dataset:
A method of controlling an engine-driven, electrical generator system configured to be connected in parallel with a second power source, the generator system generating a first alternating current voltage at a first frequency with the engine running at an operating speed, the second power source providing a second AC voltage at a second frequency, the method comprising the steps of: configuring an inverter to receive an input signal corresponding to a phase angle of the second AC voltage; determining the second frequency as a function of the input signal; varying the operating speed of the engine in response to a load thereon; calculating a difference between the first frequency generated responsive to the operating speed of the engine and the second frequency and providing the difference as an adjustment frequency; characterized by monitoring a positional signal to adjust a phase angle of the first AC voltage at outputs (33a-33c) of a stator to remain synchronized with fluctuations with the second AC voltage, the phase angle of the first AC voltage at outputs (33a-33e) of a stator is adjusted by varying the adjustment frequency in the inverter and, in turn, varying a frequency of slip power provided to rotor windings (31a-31c) of a rotor independent of the engine speed. configuring an inverter to receive an input signal corresponding to a phase angle of the second AC voltage; determining the second frequency as a function of the input signal; varying the operating speed of the engine in response to a load thereon; calculating a difference between the first frequency generated responsive to the operating speed of the engine and the second frequency and providing the difference as an adjustment frequency; characterized by monitoring a positional signal to adjust a phase angle of the first AC voltage at outputs (33a-33c) of a stator to remain synchronized with fluctuations with the second AC voltage, the phase angle of the first AC voltage at outputs (33a-33e) of a stator is adjusted by varying the adjustment frequency in the inverter and, in turn, varying a frequency of slip power provided to rotor windings (31a-31c) of a rotor independent of the engine speed.
Method for accessing a memory of an integrated circuit by way of a further computing device, wherein • computing-device-specific access information for the access is generated from predetermined IC-specific memory information, which is encoded in a file and provided with predetermined characters or strings and at least includes information about memory locations of a memory block of a first memory area, said information including address values or a value for the calculation of an address value, by way of a computer-implemented execution of a predetermined translation algorithm by virtue of the predetermined characters or strings of the IC-specific memory information being translated into characters or strings that are assigned to these predetermined characters or strings, wherein the computing-device-specific access information is encoded in a further file that is stored in a memory device, wherein • the memory device is accessed during a compiling process to generate code that can be executed by the further computing device, wherein the code is generated in such a way that • the further computing device accesses the memory of the integrated circuit depending on the computing-device-specific access information when the code is executed, wherein the further computing device uses the computing-device-specific access information to generate an access command in which an address value of a memory location of the memory of the integrated circuit is encoded. • computing-device-specific access information for the access is generated from predetermined IC-specific memory information, which is encoded in a file and provided with predetermined characters or strings and at least includes information about memory locations of a memory block of a first memory area, said information including address values or a value for the calculation of an address value, by way of a computer-implemented execution of a predetermined translation algorithm by virtue of the predetermined characters or strings of the IC-specific memory information being translated into characters or strings that are assigned to these predetermined characters or strings, wherein the computing-device-specific access information is encoded in a further file that is stored in a memory device, wherein • the memory device is accessed during a compiling process to generate code that can be executed by the further computing device, wherein the code is generated in such a way that • the further computing device accesses the memory of the integrated circuit depending on the computing-device-specific access information when the code is executed, wherein the further computing device uses the computing-device-specific access information to generate an access command in which an address value of a memory location of the memory of the integrated circuit is encoded.
An ophthalmic laser processing apparatus comprising: - a laser device configured to output a pulsed laser beam towards an eye, the laser beam having a beam focus; - an image capturing device positioned to capture an image of the eye and configured to provide image data; - a control device configured to detect eye movement based on the image data and to control the beam focus temporally and spatially based on a predetermined eye processing pattern and the detected eye movement; and - a visualization device including a monitor and controlled by the control device to output a graphical illustration, the graphical illustration representing at least a frequency distribution of a value of an eye parameter determined on the basis of the image data in relation to each of a plurality of different time points or time intervals; characterized in that the control device is configured to determine the value of the eye parameter in relation to each of a plurality of pulses of the laser beam and to determine the frequency distribution on the basis of the determined parameter values; and in that the control device is configured to cause the visualization device to output the graphical illustration on the monitor during a phase of beam emission and update the graphical illustration as the phase of beam emission proceeds. - a laser device configured to output a pulsed laser beam towards an eye, the laser beam having a beam focus; - an image capturing device positioned to capture an image of the eye and configured to provide image data; - a control device configured to detect eye movement based on the image data and to control the beam focus temporally and spatially based on a predetermined eye processing pattern and the detected eye movement; and - a visualization device including a monitor and controlled by the control device to output a graphical illustration, the graphical illustration representing at least
Booster valve for pneumatic circuits, comprising: - a hollow body, - a pilot flow inlet/outlet gap communicating directly with a control volume; - an inlet/outlet gap communicating with an actuator and communicating directly with an accumulation volume; - a supplying gap communicating directly with a supplying volume, - a discharge gap, - an amplified discharge shutter which determines the sealing towards the discharge gap, - a central device comprising an amplified charge shutter which determines the sealing towards the supplying gap, - an activation piston which, subjected to the pressure acting in the accumulation volume and in the control volume, determines the movement of the amplified discharge shutter or of the amplified charge shutter - the central device comprising a plurality of stakes, which, in combination with the passage sections determined by the opening of the amplified discharge shutter and the amplified charge shutter determine the flow amplification in discharge and charge steps and characterized by: - two separated and independent charge and discharge gain control devices which allow an independent adjustment between the charge and discharge step and vice versa. - a hollow body, - a pilot flow inlet/outlet gap communicating directly with a control volume; - an inlet/outlet gap communicating with an actuator and communicating directly with an accumulation volume; - a supplying gap communicating directly with a supplying volume, - a discharge gap, - an amplified discharge shutter which determines the sealing towards the discharge gap, - a central device comprising an amplified charge shutter which determines the sealing towards the supplying gap, - an activation piston which, subjected to the pressure acting in the accumulation volume and in the control volume, determines the movement of the amplified discharge shutter or of the amplified charge shutter - the central device comprising a plurality of stakes, which, in combination with the passage sections determined by the opening of the amplified discharge shutter and the amplified charge shutter determine the flow amplification in discharge and charge steps - two separated and independent charge and discharge gain control devices which allow an independent adjustment between the charge and discharge step and vice versa.
Planar securing means, more particularly a securing net, for securing a cargo during its transportation on the loading surface of a vehicle, with a flexible securing surface which is configured as a network (7, 8) of crossing straps (7, 8) or ropes, and with at least one securing bar which is connected to the network (7, 8) by way of loops, wherein the securing bar is fitted with at least one hook for fixing the securing bar to a side wall (2 to 6) characterised in that the hook and an eye for fixing the respective loop are designed as a component part of an adapter which can be steplessly fixed on the securing bar.
A pulse photometer comprising: a first variation acquirer which is configured to acquire a first variation (Δ1) corresponding to a light attenuation variation (ΔA1) of a first light beam due to pulsation of blood in a subject, based on a first intensity signal corresponding to an intensity of the first light beam that is transmitted through or reflected from a body of the subject, and that has a first wavelength (λ1); a second variation acquirer which is configured to acquire a second variation (Δ2) set as the sum of a first offset and a light attenuation variation (ΔA2) of a second light beam due to the pulsation of the blood in the subject, based on a second intensity signal corresponding to an intensity of the second light beam that is transmitted through or reflected from the body of the subject, and that has a second wavelength (λ2); and a concentration calculator which is configured to calculate a blood light absorber concentration, based on the first variation and the second variation, wherein the first offset corresponds to a proportionality constant between the inverse of the light attenuation variation of the first light beam and the difference between the concentration with a transcutaneous measurement and the concentration with an invasive measurement performed to obtain arterial oxygen saturation. a first variation acquirer which is configured to acquire a first variation (Δ1) corresponding to a light attenuation variation (ΔA1) of a first light beam due to pulsation of blood in a subject, based on a first intensity signal corresponding to an intensity of the first light beam that is transmitted through or reflected from a body of the subject, and that has a first wavelength (λ1); a second variation acquirer which is configured to acquire a second variation (Δ2) set as the sum of a first offset and a light attenuation variation (ΔA2) of a second light beam due to the pulsation of the blood in the subject, based on a second intensity signal corresponding to an intensity of the second light beam that is transmitted through or reflected from the body of the subject, and that has a second wavelength (λ2); and a concentration calculator which is configured to calculate a blood light absorber concentration, based on the first variation and the second variation, wherein the first offset corresponds to a proportionality constant between the inverse of the light attenuation variation of the first light beam and the difference between the concentration with a transcutaneous measurement and the concentration with an invasive measurement performed to obtain arterial oxygen saturation.
A system for transmitting data within a borehole, comprising: a first node for short-range communications disposed at a first location within the borehole, the first node including a first transmitter configured to transmit a first signal; and a second node (223A-E) for long-range communications disposed at a second location (221; 321; 621) within the borehole, distinct from the first location, the second node (223A-E) including a first receiver and a second receiver, wherein each of the first receiver and the second receiver are configured to receive the first signal transmitted from the first transmitter, and wherein the first receiver and the second receiver are configured to communicate with each other at the second location (221; 321; 621). a first node for short-range communications disposed at a first location within the borehole, the first node including a first transmitter configured to transmit a first signal; and a second node (223A-E) for long-range communications disposed at a second location (221; 321; 621) within the borehole, distinct from the first location, the second node (223A-E) including a first receiver and a second receiver, wherein each of the first receiver and the second receiver are configured to receive the first signal transmitted from the first transmitter, and wherein the first receiver and the second receiver are configured to communicate with each other at the second location (221; 321; 621).
Fitting for producing a leak-tight connection with a pipe end, - with at least one pressing portion which is configured for insertion of a pipe end and for compression, - with at least one sealing element (10.) and - with at least one retaining element, - wherein the sealing element and the retaining element are arranged in the pressing portion, - wherein the retaining element is substantially annular, - wherein the annular form defines a circumferential direction and an axial direction, and - wherein the retaining element has two ends (18, 18') in relation to the circumferential direction, characterised in that - the retaining element has at each of the two ends (18, 18') at least one contact surface (20, 20', 20a, 20a', 20b, 20b') which extends at least partially in the circumferential direction, and - the contact surfaces (20, 20', 20a, 20a', 20b, 20b') are configured to be brought into contact with each other upon compression of the pressing portion and - that at least a recess (22, 22a, 22b, 22c, 22d) is configured so as to be in particular rectangular, V-shaped or in the form of a circle portion. - with at least one pressing portion which is configured for insertion of a pipe end and for compression, - with at least one sealing element (10.) and - with at least one retaining element, - wherein the sealing element and the retaining element are arranged in the pressing portion, - wherein the retaining element is substantially annular, - wherein the annular form defines a circumferential direction and an axial direction, and - wherein the retaining element has two ends (18, 18') in relation to the circumferential direction, - the retaining element has at each of the two ends (18, 18') at least one contact surface (20, 20', 20a, 20a', 20b, 20b') which extends at least partially in the circumferential direction, and - the contact surfaces (20, 20', 20a, 20a', 20b, 20b') are configured to be brought into contact with each other upon compression of the pressing portion and - that at least a recess (22, 22a, 22b, 22c, 22d) is configured so as to be in particular rectangular, V-shaped or in the form of a circle portion.
An embedded sensor apparatus (100;200;300;400) comprising: a substrate (101;301;401) with a cavity; a wireless sensor embedded in the cavity of the substrate (101;301;401); a protective cover coupled to the wireless sensor; and a ferrite layer (105;205;305;405) covering the protective cover, wherein the ferrite layer (105;205;305;405) comprises a ferrite material selected based in part on an operating frequency of the wireless sensor. a substrate (101;301;401) with a cavity; a wireless sensor embedded in the cavity of the substrate (101;301;401); a protective cover coupled to the wireless sensor; and a ferrite layer (105;205;305;405) covering the protective cover, wherein the ferrite layer (105;205;305;405) comprises a ferrite material selected based in part on an operating frequency of the wireless sensor.
Method for operating a packaging machine, in particular a form, fill and seal machine, wherein in at least one method step the packaging machine processes a film material for packing a product according to at least one processing instruction, wherein the at least one processing instruction is derived from a user input via an interface device of the packaging machine, characterized in that the interface device displays an image of the film material, and wherein in at least one method step a modification of the displayed image by a user input via the interface device is converted to the at least one processing instruction.
A method for selecting a sample removing area of an unstained tissue sample to be removed for molecular diagnostic, comprising the following steps: a) selecting a reference removing area in a reference image of a reference slice of an object; wherein biological material in the reference slice is a stained tissue sample; b) obtaining a digital sample image of a sample slice of the object under an imaging setting; wherein the biological material in the sample slice is an unstained tissue sample embedded in paraffin; wherein the sample slice is received on a sample slide and positioned in an optical path between a light source and an image detector of a bright field microscope, wherein in the optical path between the light source and the image detector it is further provided a contrast enhancing arrangement for improving contrast between the unstained biological material embedded in paraffin and background; and wherein light is provided passing through the sample slice to be received by the image detector; c) registering the digital sample image with the reference image, and translating the reference removing area in the reference image to the digital sample image; and d) identifying a sample removing area in the digital sample image based on the translated reference removing area. a) selecting a reference removing area in a reference image of a reference slice of an object; wherein biological material in the reference slice is a stained tissue sample; b) obtaining a digital sample image of a sample slice of the object under an imaging setting; wherein the biological material in the sample slice is an unstained tissue sample embedded in paraffin; wherein the sample slice is received on a sample slide and positioned in an optical path between a light source and an image detector of a bright field microscope, wherein in the optical path between the light source and the image detector it is further provided a contrast enhancing arrangement for improving contrast between the unstained biological material embedded in paraffin and background; and wherein light is provided passing through the sample slice to be received by the image detector; wherein the sample slice is received on a sample slide and positioned in an optical path between a light source and an image detector of a bright field microscope, wherein in the optical path between the light source and the image detector it is further provided a contrast enhancing arrangement for improving contrast between the unstained biological material embedded in paraffin and background; and wherein light is provided passing through the sample slice to be received by the image detector; c) registering the digital sample image with the reference image, and translating the reference removing area in the reference image to the digital sample image; and d) identifying a sample removing area in the digital sample image based on the translated reference removing area.
Valve diagnostic system for valve diagnostics and monitoring comprising: a valve, connected to a pipe system and responsive to pressure in the pipe system, at least one pressure sensor configured to detect the pressure of at least one pipe system, which is in fluid communication with the valve, a data hub, which is configured to receive data detected by the at least one pressure sensor and to transmit said data to a data processing unit, and a self-contained power supply unit, which is configured to convert ambient energy in electrical energy and to power the power consumers of the system whereby the components of the system are entirely integrated within the valve itself. a valve, connected to a pipe system and responsive to pressure in the pipe system, at least one pressure sensor configured to detect the pressure of at least one pipe system, which is in fluid communication with the valve, a data hub, which is configured to receive data detected by the at least one pressure sensor and to transmit said data to a data processing unit, and a self-contained power supply unit, which is configured to convert ambient energy in electrical energy and to power the power consumers of the system whereby the components of the system are entirely integrated within the valve itself.
An apparatus for a work machine, the apparatus comprising means configured for performing: - receiving, during a first action of an automatic adaptive loading procedure by a work machine equipped with a boom and a bucket connected to the boom, driveline information of at least one driveline component of the work machine, - defining a set of control parameters on the basis of the received driveline information, and - controlling position of the boom, position of the bucket, and speed of the work machine on the basis of the defined set of control parameters during a second action of the automatic adaptive loading procedure, characterized in that the apparatus is further configured to monitor time of applying the defined set of control parameters, and control change of set of control parameters to control position of the boom, position of the bucket, and speed of the work machine in response to the time that the defined set of control parameters exceeds a threshold value. - receiving, during a first action of an automatic adaptive loading procedure by a work machine equipped with a boom and a bucket connected to the boom, driveline information of at least one driveline component of the work machine, - defining a set of control parameters on the basis of the received driveline information, and - controlling position of the boom, position of the bucket, and speed of the work machine on the basis of the defined set of control parameters during a second action of the automatic adaptive loading procedure,