mhurhangee/ep-ind-claims huggingface dataset:
Method for producing a cheese spiral, characterized in that it comprises the following steps: - providing a cheese paste, - extruding the cheese paste, so as to form a cheese string, and - winding the cheese string upon itself, so as to form the cheese spiral, the method comprising an additional step of passage through a presser by the cheese string, during which the cheese string, which is elongated in a longitudinal direction, is driven in this longitudinal direction and crushed in a transverse direction substantially perpendicular to the longitudinal direction, the winding comprising the following substeps: - gripping of an initial end of the cheese string by a gripping member output of the presser, then - rotation of the gripping member about an axis of rotation substantially perpendicular to the longitudinal direction and transverse direction. - providing a cheese paste, - extruding the cheese paste, so as to form a cheese string, and - winding the cheese string upon itself, so as to form the cheese spiral, the method comprising an additional step of passage through a presser by the cheese string, during which the cheese string, which is elongated in a longitudinal direction, is driven in this longitudinal direction and crushed in a transverse direction substantially perpendicular to the longitudinal direction, the winding comprising the following substeps: - gripping of an initial end of the cheese string by a gripping member output of the presser, then - rotation of the gripping member about an axis of rotation substantially perpendicular to the longitudinal direction and transverse direction. - gripping of an initial end of the cheese string by a gripping member output of the presser, then - rotation of the gripping member about an axis of rotation substantially perpendicular to the longitudinal direction and transverse direction.
An electrical switching device (100; 650; 700) comprising: a first movable contact (110; 710); a second movable contact (120; 720); a blocking member (140; 740) configured for engagement with said second movable contact (120; 720); an arresting member (130; 730) configured for selective engagement with said first movable contact (110; 710) such that, when engaged, movement of said first movable contact (110; 710) is prevented in a first direction; and an actuator configured to adjust the position of said arresting member (130; 730) to effect opening and closing of the electrical switching device (100; 650; 700); wherein during opening of said electrical switching device (100; 650; 700), said actuator removes said arresting member (130; 730) from engagement with said first movable contact (110; 710) such that said first movable contact (110; 710) and said second movable contact (120; 720) move in the first direction until said second movable contact (120; 720) engages said blocking member (140; 740), wherein after said second movable contact (120; 720) engages said blocking member (140; 740), said first movable contact (110; 710) continues moving in the first direction, thereby causing said first movable contact (110; 710) to separate from said second movable contact (120; 720). a first movable contact (110; 710); a second movable contact (120; 720); a blocking member (140; 740) configured for engagement with said second movable contact (120; 720); an arresting member (130; 730) configured for selective engagement with said first movable contact (110; 710) such that, when engaged, movement of said first movable contact (110; 710) is prevented in a first direction; and an actuator configured to adjust the position of said arresting member (130; 730) to effect opening and closing of the electrical switching device (100; 650; 700); wherein during opening of said electrical switching device (100; 650; 700), said actuator removes said arresting member (130; 730) from engagement with said first movable contact (110; 710) such that said first movable contact (110; 710) and said second movable contact (120; 720) move in the first direction until said second movable contact (120; 720) engages said blocking member (140; 740), wherein after said second movable contact (120; 720) engages said blocking member (140; 740), said first movable contact (110; 710) continues moving in the first direction, thereby causing said first movable contact (110; 710) to separate from said second movable contact (120; 720).
A non-transitory machine readable media storing executable program instructions which when executed by one or more data processing systems cause the one or more data processing systems to perform a method comprising: receiving a first message directed to a first organization from a device of a user, the first message having a first message type; selecting, based on the first message type, a first autonomous processing system to respond to the first message, wherein the first autonomous processing system is configured to generate responses to the first message type; routing the first message to the first autonomous processing system; transmitting, to the device of the user, a response to the first message from the first autonomous processing system; receiving a second message directed to the first organization from the device of the user or a device of another user, the second message having a second message type that differs from the first message type; selecting, based on the second message type, a second autonomous processing system to respond to the second message, wherein the second autonomous processing system is configured to generate responses to the second message type; routing the second message to the second autonomous processing system; and transmitting, to the device of the user or the device of the other user, a response to the second message from the second autonomous processing system. receiving a first message directed to a first organization from a device of a user, the first message having a first message type; selecting, based on the first message type, a first autonomous processing system to respond to the first message, wherein the first autonomous processing system is configured to generate responses to the first message type; routing the first message to the first autonomous processing system; transmitting, to the device of the user, a response to the first message from the first autonomous processing system; receiving a second message directed to the first organization from the device of the user or a device of another user, the second message having a second message type that differs from the first message type; selecting, based on the second message type, a second autonomous processing system to respond to the second message, wherein the second autonomous processing system is configured to generate responses to the second message type; routing the second message to the second autonomous processing system; and transmitting, to the device of the user or the device of the other user, a response to the second message from the second autonomous processing system.
A device for facilitating implantation of an intramedullary nail, comprising: a coupling portion extending from a first end configured to couple to a proximal end of an intramedullary nail to a joint portion; and a radiolucent handle coupled to the joint portion and extending distally therefrom along a path which, when the coupling portion is coupled to an intramedullary nail in a desired orientation, extends substantially parallel to a longitudinal axis of a proximal portion of the nail, the handle having a first guide wire hole extending therethrough along a wire axis selected so that, when a nail is coupled to the device in a desired orientation, the wire axis is in a plane including a longitudinal axis of a proximal portion of the nail and an axis of a transverse opening in the nail through which an implant is to be inserted into a target portion of a bone, wherein the device further comprises a second guide wire hole extending through the coupling portion, the first and second guide wire holes (130, 132) being axially aligned with one another to receive a wire therethrough, characterised in that the radiolucent handle includes first and second radiopaque markers positioned and oriented so that, when the nail is coupled to the coupling portion in the desired orientation, the first and second markers align with edges of the proximal portion of the nail. a coupling portion extending from a first end configured to couple to a proximal end of an intramedullary nail to a joint portion; and a radiolucent handle coupled to the joint portion and extending distally therefrom along a path which, when the coupling portion is coupled to an intramedullary nail in a desired orientation, extends substantially parallel to a longitudinal axis of a proximal portion of the nail, the handle having a first guide wire hole extending therethrough along a wire axis selected so that, when a nail is coupled to the device in a desired orientation, the wire axis is in a plane including a longitudinal axis of a proximal portion of the nail and an axis of a transverse opening in the nail through which an implant is to be inserted into a target portion of a bone, wherein the device further comprises a second guide wire hole extending through the coupling portion, the first and second guide wire holes (130, 132) being axially aligned with one another to receive a wire therethrough, characterised in that the radiolucent handle includes first and second radiopaque markers positioned and oriented so that, when the nail is coupled to the coupling portion in the desired orientation, the first and second markers align with edges of the proximal portion of the nail.
Dust filter bag for a vacuum cleaner device, comprising - a bag having a bag wall which is formed at least in portions of filter material and comprises a bag inlet opening (11e, 111ki), - a retaining plate that comprises a retaining plate inlet opening (12e, 14i), - the retaining plate being arranged on the outside of the bag in such a way that the retaining plate inlet opening (12e, 14i) aligns with the bag inlet opening (11e, 111ki, Si), the bag wall comprising a portion that comprises a plastics film and consists of a plastics film, and the bag inlet opening (11e, 111ki, Si) being formed in this portion of the bag wall that comprises a plastics film, characterised in that the portion of the bag wall that comprises the plastics film has a larger surface extension than the retaining plate, and therefore the dust filter bag is free from filter material in the region of the retaining plate. - a bag having a bag wall which is formed at least in portions of filter material and comprises a bag inlet opening (11e, 111ki), - a retaining plate that comprises a retaining plate inlet opening (12e, 14i), - the retaining plate being arranged on the outside of the bag in such a way that the retaining plate inlet opening (12e, 14i) aligns with the bag inlet opening (11e, 111ki, Si),
A device for determining changes in retinal and/or brain temperature, comprising means for acquiring retina-evoked signals from a retina and the device is configured to: - acquire at least one retina-evoked signal from a retina in a first temperature, - acquire at least one retina-evoked signal from the retina in at least a second temperature, the second temperature being different than the first temperature, characterised in that the device is further configured to: - transform at least the retina-evoked signal acquired in the second temperature with a plurality of different transformation parameter values resulting a plurality of different transformed signals, - compare the different transformed signals of the retina-evoked signal in the second temperature to the retina-evoked signal and/or the transformed signals acquired from the retina in the first temperature, - select the transformed retina-evoked signal which produces the highest similarity measure with the retina-evoked signal and/or transformed signal acquired from the retina in the first temperature, and - convert the transformation parameter value or parameter values of the selected transformed signal to a temperature, temperature difference between the first temperature and the second temperature, and/or temperature dependent indicator. - acquire at least one retina-evoked signal from a retina in a first temperature, - acquire at least one retina-evoked signal from the retina in at least a second temperature, the second temperature being different than the first temperature, - transform at least the retina-evoked signal acquired in the second temperature with a plurality of different transformation parameter values resulting a plurality of different transformed signals, - compare the different transformed signals of the retina-evoked signal in the second temperature to the retina-evoked signal and/or the transformed signals acquired from the retina in the first temperature, - select the transformed retina-evoked signal which produces the highest similarity measure with the retina-evoked signal and/or transformed signal acquired from the retina in the first temperature, and - convert the transformation parameter value or parameter values of the selected transformed signal to a temperature, temperature difference between the first temperature and the second temperature, and/or temperature dependent indicator.
A method for bi-directional ventilator communication, comprising: at a ventilator, receiving communications from a remote device pertaining to manipulating ventilator functionality: capturing one or more images of a patient using a patient orientation monitoring device comprising a camera (740,750,3420); determining, from the one or more captured images, a physical orientation of a patient; modifying, based on the physical orientation of the patient, a protocol of the ventilator or an amount of a fresh gas to be provided to the patient by the ventilator; and transmitting said modification to a remote device for display at the remote device, the remote device being remote from the ventilator and the patient orientation monitoring device. capturing one or more images of a patient using a patient orientation monitoring device comprising a camera (740,750,3420); determining, from the one or more captured images, a physical orientation of a patient; modifying, based on the physical orientation of the patient, a protocol of the ventilator or an amount of a fresh gas to be provided to the patient by the ventilator; and transmitting said modification to a remote device for display at the remote device, the remote device being remote from the ventilator and the patient orientation monitoring device.
A clamping system (200, 400) for making and breaking threaded connections between a first tubular and a second tubular (110, 116), the system comprising: a clamp assembly (210, 410) for gripping and rotating the first tubular relative to the second tubular (110, 116), the assembly having a central axis and comprising: a first cam gear configured to rotate about the central axis and having a radially inner surface comprising a plurality of circumferentially adjacent concave recesses defining a plurality of cam surfaces; a first plurality of clamp members, wherein each clamp member of the first plurality of clamp members is disposed in one recess of the first cam gear; a torque gear configured to rotate about the central axis; wherein each clamp member is pivotally coupled to the torque gear; wherein each clamp member is configured to pivot between a withdraw position radially spaced apart from the first tubular and a gripping position engaging the first tubular. a first cam gear configured to rotate about the central axis and having a radially inner surface comprising a plurality of circumferentially adjacent concave recesses defining a plurality of cam surfaces; a first plurality of clamp members, wherein each clamp member of the first plurality of clamp members is disposed in one recess of the first cam gear; a torque gear configured to rotate about the central axis; wherein each clamp member is pivotally coupled to the torque gear; wherein each clamp member is configured to pivot between a withdraw position radially spaced apart from the first tubular and a gripping position engaging the first tubular.
An entomological taxidermy process to reinforce the coleoptera exoskeleton comprising the following steps: i. Step I: Sectioning ii. Step II: Removal of entrails iii. Step III: Filling and Assembling iv. Step IV: Reincorporation of the elytra v. Step V: Drying vi. Step VI: Removal of limbs vii. Step VII: Final cleaning Characterized in that two mixtures are used to fill the exoskeleton: Marble and enamel powder Cellulose and enamel i. Step I: Sectioning ii. Step II: Removal of entrails iii. Step III: Filling and Assembling iv. Step IV: Reincorporation of the elytra v. Step V: Drying vi. Step VI: Removal of limbs vii. Step VII: Final cleaning Marble and enamel powder Cellulose and enamel
A control method for a refrigerator, the method comprising: detecting and confirming that a cumulative running time of a compressor is at least a running time threshold and an ice maker is currently in a working state, and controlling the ice maker to perform a defrosting operation of its evaporator after a current ice making cycle is ended, wherein the running time threshold is a time difference between a defrosting cycle of the ice making evaporator and the ice making cycle of the ice maker, and detecting and confirming that the cumulative running time is at least the running time threshold and the ice maker is currently in a non-working state, and controlling the ice maker to stop issuing an ice making request; and detecting and confirming that the cumulative running time reaches the defrosting cycle, and controlling the ice making evaporator to perform the defrosting operation. detecting and confirming that a cumulative running time of a compressor is at least a running time threshold and an ice maker is currently in a working state, and controlling the ice maker to perform a defrosting operation of its evaporator after a current ice making cycle is ended, wherein the running time threshold is a time difference between a defrosting cycle of the ice making evaporator and the ice making cycle of the ice maker, and detecting and confirming that the cumulative running time is at least the running time threshold and the ice maker is currently in a non-working state, and controlling the ice maker to stop issuing an ice making request; and detecting and confirming that the cumulative running time reaches the defrosting cycle, and controlling the ice making evaporator to perform the defrosting operation.
A data reception chip coupled to an external memory comprising a first input-output pin configured to output first data, comprising: a comparison module coupled to the first input-output pin to receive the first data according to a first operation voltage and comparing the first data with a first reference voltage to identify the value of the first data, wherein the first operation voltage is coupled to the first data (DQ<0>) and a voltage generation module,and the voltage generation module configured to generate the first reference voltage and comprises: a first resistor; and a second resistor connected to the first resistor in series, wherein the first and second resistors divide the first operation voltage to generate the first reference voltage. a comparison module coupled to the first input-output pin to receive the first data according to a first operation voltage and comparing the first data with a first reference voltage to identify the value of the first data, wherein the first operation voltage is coupled to the first data (DQ<0>) and a voltage generation module,and the voltage generation module configured to generate the first reference voltage and comprises: a first resistor; and a second resistor connected to the first resistor in series, wherein the first and second resistors divide the first operation voltage to generate the first reference voltage. a first resistor; and a second resistor connected to the first resistor in series, wherein the first and second resistors divide the first operation voltage to generate the first reference voltage.
Apparatus, comprising: a display; and a processor, configured: to receive, from a user, an input that indicates one or more points of interest on a three-dimensional electroanatomical map, of an anatomical surface, that is displayed on the display, and to superimpose on the map, in response to the input, a plurality of contours, each one of the contours being at a different respective geodesic distance, with respect to the surface, from the one or more points of interest. a display; and a processor, configured: to receive, from a user, an input that indicates one or more points of interest on a three-dimensional electroanatomical map, of an anatomical surface, that is displayed on the display, and to superimpose on the map, in response to the input, a plurality of contours, each one of the contours being at a different respective geodesic distance, with respect to the surface, from the one or more points of interest. to receive, from a user, an input that indicates one or more points of interest on a three-dimensional electroanatomical map, of an anatomical surface, that is displayed on the display, and to superimpose on the map, in response to the input, a plurality of contours, each one of the contours being at a different respective geodesic distance, with respect to the surface, from the one or more points of interest.
A signal processing system comprising: - an input port for receiving measurement data detected at an X-ray sensitive detector of an interferometric X-ray imaging system, after passage of an X-ray beam through a sample; - a model initializer configured to include said data into a signal model; - a model fitting module configured to perform, for a plurality of detector pixels, a fitting operation to fit parameters of said signal model to the measurement data wherein the signal model includes parameters that represent attenuation of the X-ray beam, wherein at least one of the parameters accounts for photo-electric effect absorption and wherein at least one of the parameters accounts for Compton scattering, wherein the Compton scattering parameter is a surrogate for the electron density in said sample, wherein the signal model includes a term that models, as a function of the Compton scattering, a modulation of a phase change induced by the object; - an output port configured to output at least some of the fitted parameters as a photo-electric absorption image or a Compton scattering image, respectively. - an input port for receiving measurement data detected at an X-ray sensitive detector of an interferometric X-ray imaging system, after passage of an X-ray beam through a sample; - a model initializer configured to include said data into a signal model; - a model fitting module configured to perform, for a plurality of detector pixels, a fitting operation to fit parameters of said signal model to the measurement data wherein the signal model includes parameters that represent attenuation of the X-ray beam, wherein at least one of the parameters accounts for photo-electric effect absorption and wherein at least one of the parameters accounts for Compton scattering, wherein the Compton scattering parameter is a surrogate for the electron density in said sample, wherein the signal model includes a term that models, as a function of the Compton scattering, a modulation of a phase change induced by the object; - an output port configured to output at least some of the fitted parameters as a photo-electric absorption image or a Compton scattering image, respectively.