mhurhangee/ep-ind-claims huggingface dataset:
A system comprising: a hair cutting device having a cutting element for cutting a subject's hair; a localisation unit for acquiring location data indicative of a location of the cutting element relative to a body part of the subject; a timer unit for measuring time data associated with usage of the hair cutting device; and a processing unit in communication with the hair cutting device, the localisation unit and the timer unit, the processing unit being configured to: determine, based on the acquired location data, a region of the subject's body part corresponding to the location of the cutting element; determine, based on the time data and the determined body part region, an amount of time spent by the cutting element within the determined body part region; determine, based on the determined amount of time, an operating parameter to be applied to the hair cutting device when the cutting element is within the determined body part region; and operate the hair cutting device according to the determined operating parameter. a hair cutting device having a cutting element for cutting a subject's hair; a localisation unit for acquiring location data indicative of a location of the cutting element relative to a body part of the subject; a timer unit for measuring time data associated with usage of the hair cutting device; and a processing unit in communication with the hair cutting device, the localisation unit and the timer unit, the processing unit being configured to: determine, based on the acquired location data, a region of the subject's body part corresponding to the location of the cutting element; determine, based on the time data and the determined body part region, an amount of time spent by the cutting element within the determined body part region; determine, based on the determined amount of time, an operating parameter to be applied to the hair cutting device when the cutting element is within the determined body part region; and operate the hair cutting device according to the determined operating parameter. determine, based on the acquired location data, a region of the subject's body part corresponding to the location of the cutting element; determine, based on the time data and the determined body part region, an amount of time spent by the cutting element within the determined body part region; determine, based on the determined amount of time, an operating parameter to be applied to the hair cutting device when the cutting element is within the determined body part region; and operate the hair cutting device according to the determined operating parameter.
A method for determining particle parameters such as particle concentration, particle size, size distribution and particle count per size class, refractive index, and non-sphericity of microscale and submicroscale particles in flow measuring cells with hydrodynamic focusing by multiparametric acquisition of absorbance and/or scattered light signals, wherein the scattered light and absorbance signals of each individual dispersed particle that are generated by means of a laser with variable beam intensity and an aspherical beam cross-section (focus) are counted and simultaneously measured at a high detection rate (frequency) in at least two solid angle ranges, and compared in analog or digital manner using simulation calculations of the scattered light distribution by analytical or numerical methods for the different solid angle ranges in order to determine therefrom the individual particle parameters over a dynamic particle size range of four orders of magnitude without coincidence, even for high particle concentrations (e.g. 10 9 particles/ml) of the measurement sample, wherein use is made of different aperture angles for forward scattering or a plurality of detection directions for the scattered light measurement and of any desired combinations of these, wherein the particle size and refractive index are determined from the respective scattering intensities of the simultaneous measurements; wherein, in order to determine sphericity or non-sphericity, the entire temporal intensity profile of the scattered light pulse during passage of the particle through the measuring volume is measured and analyzed or stored in real time.
A method of interactively and graphically displaying performance information to a user of an HVAC system controlled by a thermostat comprising: using the thermostat, gathering information relating to HVAC system usage; calculating a HVAC usage parameter for a time interval as being above or below average usage; evaluating (1010, 1012, 1014, 1016, 1018) a plurality of potential causative agents for potential causation of the calculated HVAC usage parameter being above or below the average usage; based on the evaluation, selecting (1022, 1024) a primary causative agent wherein the causative agent that has the largest overall affect on energy usage is considered to be the primary causative agent; on a display device in a location remote from the thermostat, graphically displaying performance information based on the gathered information, the displayed performance information including a graphical daily summary for each of a plurality of days wherein the graphical summary for a day includes a symbol (764; 798; 864) indicating the primary causative agent which is responsible for above or below HVAC energy performance; and in response to a user selection of a day, graphically displaying on the display device detailed performance information for the user selected day. using the thermostat, gathering information relating to HVAC system usage; calculating a HVAC usage parameter for a time interval as being above or below average usage; evaluating (1010, 1012, 1014, 1016, 1018) a plurality of potential causative agents for potential causation of the calculated HVAC usage parameter being above or below the average usage; based on the evaluation, selecting (1022, 1024) a primary causative agent wherein the causative agent that has the largest overall affect on energy usage is considered to be the primary causative agent; on a display device in a location remote from the thermostat, graphically displaying performance information based on the gathered information, the displayed performance information including a graphical daily summary for each of a plurality of days wherein the graphical summary for a day includes a symbol (764; 798; 864) indicating the primary causative agent which is responsible for above or below HVAC energy performance; and in response to a user selection of a day, graphically displaying on the display device detailed performance information for the user selected day.
A quick release tag holder system ("QRTHS") comprising: a collar disposable around a neck of an animal; a tag holder comprising an inner side and an outer side, said tag holder comprising: a first slot and a second slot, each of the first slot and the second slot having dimensions to accommodate said collar; and a recess provided between the first slot and the second slot; a tag having a bottom portion and an upper portion, said bottom portion having at least one smaller diameter region, being smaller than a medium-size diameter of said recess, and said upper portion having a wider diameter region, being wider than said medium-size diameter of said recess, ensuring that removal of the tag from the recess occurs solely upwardly; said tag further comprising a securing means, said securing means comprising at least one dynamic protruding element (133H, 136A) configured to provide a snap connection into the tag holder, thereby allowing the tag to click-in within the recess, and reversibly retractable by application of pressure on at least a portion thereof for a quick release of said tag from said recess without removal of the collar from the neck of the animal; and wherein, when assembled, said bottom portion is at least partially accommodated within said recess, and said collar passes through said first slot from the inner side toward the outer side, over said upper portion of the tag, and through said second slot from the outer side toward the inner side. a collar disposable around a neck of an animal; a tag holder comprising an inner side and an outer side, said tag holder comprising: a first slot and a second slot, each of the first slot and the second slot having dimensions to accommodate said collar; and a recess provided between the first slot and the second slot; a first slot and a second slot, each of the first slot and the second slot having dimensions to accommodate said collar; and a recess provided between the first slot and the second slot; a tag having a bottom portion and an upper portion, said bottom portion having at least one smaller diameter region, being smaller than a medium-size diameter of said recess, and said upper portion having a wider diameter region, being wider than said medium-size diameter of said recess, ensuring that removal of the tag from the recess occurs solely upwardly; said tag further comprising a securing means, said securing means comprising at least one dynamic protruding element (133H, 136A) configured to provide a snap connection into the tag holder, thereby allowing the tag to click-in within the recess, and reversibly retractable by application of pressure on at least a portion thereof for a quick release of said tag from said recess without removal of the collar from the neck of the animal; and wherein, when assembled, said bottom portion is at least partially accommodated within said recess, and said collar passes through said first slot from the inner side toward the outer side, over said upper portion of the tag, and through said second slot from the outer side toward the inner side.
A module for analyzing one or more plasma analytes in whole blood comprising: a flow cell configured for housing a column of the whole blood in the module; an acoustic transducer configured for generating acoustic forces on the flow cell, the acoustic forces for temporarily partitioning the whole blood in the flow cell into a first region comprising substantially cell free plasma clear of cellular components of the whole blood and a second region comprising blood cells; a light source configured to illuminate the substantially cell free plasma in the first region; one or more optical imaging sensors configured to acquire one or more digital images of the substantially cell free plasma in the first region while the substantially cell free plasma is illuminated by the light source; and a housing configured to locate the flow cell, the light source and the optical imaging sensors in fixed alignment relative to each other, the module being characterized in that the housing is configured for removable installation in an instrument cartridge and comprises an inlet port and an outlet port to enable installation in the instrument cartridge in order to deliver the whole blood sample for analysis by the module; and the module comprises a connector that is configured to pass electrical power and control signals to and from the module. a flow cell configured for housing a column of the whole blood in the module; an acoustic transducer configured for generating acoustic forces on the flow cell, the acoustic forces for temporarily partitioning the whole blood in the flow cell into a first region comprising substantially cell free plasma clear of cellular components of the whole blood and a second region comprising blood cells; a light source configured to illuminate the substantially cell free plasma in the first region; one or more optical imaging sensors configured to acquire one or more digital images of the substantially cell free plasma in the first region while the substantially cell free plasma is illuminated by the light source; and a housing configured to locate the flow cell, the light source and the optical imaging sensors in fixed alignment relative to each other, the module being characterized in that the housing is configured for removable installation in an instrument cartridge and comprises an inlet port and an outlet port to enable installation in the instrument cartridge in order to deliver the whole blood sample for analysis by the module; and the module comprises a connector that is configured to pass electrical power and control signals to and from the module.
A compound of Formula Ia or a stereoisomer or pharmaceutically acceptable salt thereof: wherein: R is CH 3; R 1 is selected from: H and C 1-4 alkyl; R 2 is selected from: H, C 1-4 alkyl, C 3-6 cycloalkyl-C 0-2 alkylene-, and C 1-4 alkoxy-C 1-4 alkylene-; ring A is selected from phenyl, pyridyl, thienyl, furanyl, pyrrolyl, oxazolyl, isoxazolyl, thiazolyl, isothiazolyl, pyrimidyl, and pyridazinyl; ring A is optionally substituted with 1-2 R 3 groups; R 3 is independently selected from: C 1-4 alkyl, F, Cl, Br, I, -CN, OR a, SR a, NR a R b, CF 3, OCF 3, COR a, CO 2 R a, C NR a R b, and S pNR a R b; R a is independently selected from: H, C 1-4 alkyl and C 3-8 cycloalkyl-C 0-8 alkylene-; R b is independently selected from: H, C 1-4 alkyl and C 3-8 cycloalkyl-C 0-8 alkylene-; and, p is independently selected from: 0, 1, and 2. R is CH 3; R 1 is selected from: H and C 1-4 alkyl; R 2 is selected from: H, C 1-4 alkyl, C 3-6 cycloalkyl-C 0-2 alkylene-, and C 1-4 alkoxy-C 1-4 alkylene-; ring A is selected from phenyl, pyridyl, thienyl, furanyl, pyrrolyl, oxazolyl, isoxazolyl, thiazolyl, isothiazolyl, pyrimidyl, and pyridazinyl; ring A is optionally substituted with 1-2 R 3 groups; R 3 is independently selected from: C 1-4 alkyl, F, Cl, Br, I, -CN, OR a, SR a, NR a R b, CF 3, OCF 3, COR a, CO 2 R a, C NR a R b, and S pNR a R b; R a is independently selected from: H, C 1-4 alkyl and C 3-8 cycloalkyl-C 0-8 alkylene-; R b is independently selected from: H, C 1-4 alkyl and C 3-8 cycloalkyl-C 0-8 alkylene-; and, p is independently selected from: 0, 1, and 2.
A container assembly comprising: a collection container having a closed bottom, an open top, and a sidewall extending therebetween having an inner surface defining at least one capillary channel; and a closure adapted to interface with the collection container, the closure being seatable at least partially within the open top of the collection container to seal the collection container and define a fluid sample chamber, wherein the closure has a distal end defining a distal recess having at least one capillary channel that extends outward and downward from an apex point in the distal recess to a peripheral edge formed by the distal recess at the distal end, the distal recess being shaped to direct fluid from a patient under capillary action to the at least one capillary channel in the collection container. a collection container having a closed bottom, an open top, and a sidewall extending therebetween having an inner surface defining at least one capillary channel; and a closure adapted to interface with the collection container, the closure being seatable at least partially within the open top of the collection container to seal the collection container and define a fluid sample chamber, wherein the closure has a distal end defining a distal recess having at least one capillary channel that extends outward and downward from an apex point in the distal recess to a peripheral edge formed by the distal recess at the distal end, the distal recess being shaped to direct fluid from a patient under capillary action to the at least one capillary channel in the collection container.
A method for installation of a blade of a horizontal axis wind turbine which has a tower, a nacelle positioned on top of the tower and a hub positioned on the nacelle, characterised by the method comprising - providing a blade guide device mounted to the tower, to the nacelle or to the hub, - lifting a blade towards the hub, - while the blade is lifted, bringing an external surface of the blade and the blade guide device into contact with each other, and - after the external surface of the blade and the blade guide device have been brought into contact with each other, bringing the blade into a mounting position in which it is fastened to the hub. - providing a blade guide device mounted to the tower, to the nacelle or to the hub, - lifting a blade towards the hub, - while the blade is lifted, bringing an external surface of the blade and the blade guide device into contact with each other, and - after the external surface of the blade and the blade guide device have been brought into contact with each other, bringing the blade into a mounting position in which it is fastened to the hub.
Applicator for cosmetic product, in particular for mascara, comprising a core and a plurality of fibres projecting from said core, said core extending in a main longitudinal extension direction, referred to as the main direction, said fibres being distributed along the core, over a substantial portion of the length thereof between a proximal end and distal end opposing one another in said main direction, said fibres forming an envelope (E1-E3) with the free ends thereof, said envelope (E1-E3) extending in said main direction whilst having at least two longitudinal slots, said slots having, in a plane which is transverse to said main direction, a trapezoidal shape, thus defining slots having two lateral edges and a bottom, said lateral edges forming obtuse angles with said bottom, said bottom being flat, the fibres forming the bottom of the slots having a radial extension (e21-e23) from said core, which is referred to as the first radial extension (e21-e23), said slots extending over a portion of said main direction so as to define, in the region of the distal end of said applicator, a region (14, 14') with no slots, which is defined by fibres, the radial extension (e14, e14') of which from the core is less than or equal to said first radial extension (e21-e23) characterized in that the region (14, 14') without any slots in the region of the distal end of said applicator is formed by fibres of a first type, whereas the rest of the envelope is formed by fibres of a second type, the types of fibres being different in nature chosen among the diameter, the material, the shape, hollow or solid.
An electrochromic window system comprising: i) at least one electrochromic, EC, window (213, 300); ii) an EC window controller; iii) a photovoltaic, PV, power converter; and characterized in that it further comprises iv) an optical fiber (207, 201, 307); wherein the PV power converter is configured to receive photonic energy by way of the optical fiber, and convert the photonic energy to electricity for delivery to the EC window controller. i) at least one electrochromic, EC, window (213, 300); ii) an EC window controller; iii) a photovoltaic, PV, power converter; and characterized in that it further comprises iv) an optical fiber (207, 201, 307);
A method of performing up-sampling of signals by analytic phase projection, comprising: acquiring, by a computing device including one or more processors, from one or more sensors, a reference signal and a quasi-periodic signal of numbers or images of a subject over a time period, the reference signal having a fixed sampling rate, the quasi-periodic signal having a variable sampling rate; filtering, by the computing device, the reference signal to obtain a monocomponent signal; determining, by the computing device, by performing a Hilbert transform operation on the monocomponent signal, an analytic phase; generating, by the computing device, a phase projected signal from the quasi-periodic signal based on the analytic phase; and displaying, by the computing device, the phase projected signal for an application. acquiring, by a computing device including one or more processors, from one or more sensors, a reference signal and a quasi-periodic signal of numbers or images of a subject over a time period, the reference signal having a fixed sampling rate, the quasi-periodic signal having a variable sampling rate; filtering, by the computing device, the reference signal to obtain a monocomponent signal; determining, by the computing device, by performing a Hilbert transform operation on the monocomponent signal, an analytic phase; generating, by the computing device, a phase projected signal from the quasi-periodic signal based on the analytic phase; and displaying, by the computing device, the phase projected signal for an application.
A pharmaceutical composition comprising a pharmaceutical carrier powder, 6-mercaptopurine, a pharmaceutically acceptable base, and a pharmaceutically acceptable acid selected from the group consisting of acetic acid, ascorbic acid, citric acid, and tartaric acid, wherein the pharmaceutical composition exhibits enhanced solubility in aqueous acid as compared to the standard formulation as defined in the Physician's Desk Reference 57 th Edition, 2003, page 1615-1618 and wherein a solution of the pharmaceutically acceptable acid is sprayed onto the pharmaceutical carrier powder in a molar amount that is greater than the molar amount of pharmaceutically acceptable base and a solution of the 6-mercaptopurine and the pharmaceutically acceptable base is spray granulated onto the pharmaceutical carrier powder over the pharmaceutically acceptable acid.
A method for preventing a loop in a stack system comprising a plurality of Core Backbone devices; the CB devices being connected to each other through stack ports and to Port Extender devices through PE ports; the method comprising: a CB device receiving a first non-unicast packet through a PE port connected to a PE device; the CB device determining whether the CB device is a designated CB device for the PE device; when determining that the CB device is the designated CB device for the PE device, the CB device broadcasting the first non-unicast packet through a plurality of stack ports; when determining that the CB device is not the designated CB device for the PE device, the CB device determining which CB device in the stack system is the designated CB device for the PE device, determining a shortest path from the CB device to the designated CB device for the PE device and redirecting the first non-unicast packet by unicast forwarding the first non-unicast packet through a single stack port of the CB device along the shortest path to the designated CB device for the PE device. a CB device receiving a first non-unicast packet through a PE port connected to a PE device; the CB device determining whether the CB device is a designated CB device for the PE device; when determining that the CB device is the designated CB device for the PE device, the CB device broadcasting the first non-unicast packet through a plurality of stack ports; when determining that the CB device is not the designated CB device for the PE device, the CB device determining which CB device in the stack system is the designated CB device for the PE device, determining a shortest path from the CB device to the designated CB device for the PE device and redirecting the first non-unicast packet by unicast forwarding the first non-unicast packet through a single stack port of the CB device along the shortest path to the designated CB device for the PE device. when determining that the CB device is the designated CB device for the PE device, the CB device broadcasting the first non-unicast packet through a plurality of stack ports; when determining that the CB device is not the designated CB device for the PE device, the CB device determining which CB device in the stack system is the designated CB device for the PE device, determining a shortest path from the CB device to the designated CB device for the PE device and redirecting the first non-unicast packet by unicast forwarding the first non-unicast packet through a single stack port of the CB device along the shortest path to the designated CB device for the PE device.