mhurhangee/ep-ind-claims huggingface dataset:
A system for collecting a data set for a flow cytometer sample in a flow cytometer having a flow channel with an interrogation zone and an illumination source that impinges the interrogation zone from a particular direction, comprising: • a lens subsystem including: ∘ a collimating element (no) for receiving and collimating light from the interrogation zone; ∘ a light dispersion element for dispersing the collimated light into a continuous wavelength spectrum of light; and ∘ a focusing lens for focusing the continuous wavelength spectrum of light onto an array of adjacent detection points; • a detector array (210, S310), including a plurality of detectors, that collectively detects a full spectral range of input signals from the flow cytometer at the adjacent detection points, wherein each detector detects a subset spectral range of the full spectral range; and • a user interface that enables a user to create a set of virtual detector channels (240, S320) by grouping detectors in the detector array, such that each virtual detector channel corresponds to a detector group and has a virtual detector channel range including the sum of subset spectral ranges of the detectors in the corresponding detector group. • a lens subsystem including: ∘ a collimating element (no) for receiving and collimating light from the interrogation zone; ∘ a light dispersion element for dispersing the collimated light into a continuous wavelength spectrum of light; and ∘ a focusing lens for focusing the continuous wavelength spectrum of light onto an array of adjacent detection points; ∘ a collimating element (no) for receiving and collimating light from the interrogation zone; ∘ a light dispersion element for dispersing the collimated light into a continuous wavelength spectrum of light; and ∘ a focusing lens for focusing the continuous wavelength spectrum of light onto an array of adjacent detection points; • a detector array (210, S310), including a plurality of detectors, that collectively detects a full spectral range of input signals from the flow cytometer at the adjacent detection points, wherein each detector detects a subset spectral range of the full spectral range; and • a user interface that enables a user to create a set of virtual detector channels (240, S320) by grouping detectors in the detector array, such that each virtual detector channel corresponds to a detector group and has a virtual detector channel range including the sum of subset spectral ranges of the detectors in the corresponding detector group.
Timepiece mechanism comprising a winding mechanism and a barrel, wherein the kinematic chain from the winding pinion of the winding mechanism to the arbor of the barrel comprises a disengagement mobile designed to disengage when the torque generated by the barrel spring exceeds a certain value, the timepiece mechanism being characterised in that the disengagement mobile comprises a wheel, mounted to be freely rotatable about the barrel arbor, and a starwheel rotationally fixed to the barrel arbor, the wheel and starwheel being coaxial with the barrel arbor, as well as at least one pawl or jumper (91, 92) fixed to said first wheel and positioning the latter with respect to the starwheel.
A dry powder composition comprising a thermosetting resin in particulate form, wherein the dry powder composition has a particle size measured according to ISO 13320 characterized by a D v90 of 50 μm or lower, a D v50 in the range of 5.1 to 12.5 μm, and a ratio of Dv 90 − Dv 10 Dv 50 in the range of to 4.2. a D v90 of 50 μm or lower, a D v50 in the range of 5.1 to 12.5 μm, and a ratio of Dv 90 − Dv 10 Dv 50 in the range of to 4.2.
A high-voltage output quick connection device for coupling with high voltage outputs of an electronic gas lighting device corresponding spark generating electrodes fastenable onto an electric household appliance, wherein it comprises a frame element integrally and protrudingly carrying, on a first face thereof intended in use to face a casing of the gas lighting device, a plurality of contacts, in number equal to the high-voltage outputs and on a second face thereof, opposite to the first, a plurality of electric wires each connecting in a pre-wired manner one of said contacts with one of said spark generating electrodes; characterised in that the frame element is provided with abutting means cooperating in use with the casing for positioning said contacts at a predetermined distance by corresponding contacts carried by the casing, but facing the corresponding contacts carried by the casing.
A composition comprising: a MgZnCa alloy containing nanosized precipitates being less noble than a MgZn alloy, having a Zn content ranging from 3.0 wt. % Zn to 6 wt. % Zn and a calcium content ranging from 0.0005 wt. %Ca to 1.0 wt. %Ca, less than 0.001 wt. % of one or more other elements and with the remainder of the alloy being Mg.
A circular knitting machine, comprising a footing that supports a needle cylinder rotatable about its own axis, which is orientated vertically, multiple axial slots being formed on the outer lateral surface of the needle cylinder, each slot accommodating a needle, means (7,8,10) for actuating the needles being provided which interact with said needles during the rotation of the needle cylinder about its own axis for the actuation of the needles along the corresponding axial slot of the needle cylinder so that the needles form knitting with at least one yarn dispensed to the needles at at least one drop or feed of the machine, wherein said needle cylinder can be rotationally actuated about its own axis in both directions of rotation and said needle actuation means (7,8,10) are suitable to allow the needles to form knitting in both directions of rotation of the needle cylinder about its own axis at at least one drop or feed of the machine, wherein said needle cylinder can be actuated with an alternating rotary motion about its own axis and wherein said needle actuation means (7,8,10) comprise, for each needle, a sub-needle arranged in the corresponding axial slot of the needle cylinder below the corresponding needle; characterised by said needle cylinder having a diameter that is comprised between 177,8 mm and 609,6 mm said sub-needle being connected bilaterally to the corresponding needle in its motion along the corresponding axial slot and having, along its extension, a heel that is orientated radially with respect to the needle cylinder; said sub-needle being able to oscillate on a radial plane of the needle cylinder in order to pass from an active position, in which it is extracted radially with its heel from the corresponding axial slot of the needle cylinder so as to engage paths formed by sub-needle actuation cams, which are arranged around the needle cylinder and are suitable to produce or allow a movement of said sub-needle along the corresponding axial slot of the needle cylinder, to an inactive position, in which it is embedded with its heel in the corresponding slot of the needle cylinder so as to avoid engaging said sub-needle actuation cams; and characterized in that further actuation means are provided which act on said sub-needle for its transition from said active position to said inactive position and vice versa.
A method to check a medical device (1,1'), wherein said medical device (1,1') comprises at least two electrode groups and a pulse generator, wherein each electrode group comprises at least two electrodes, wherein the at least two electrode groups are arranged on a surface of at least one lead body, wherein the pulse generator comprises at least one port, wherein the number of connections of the at least one port is equal to or greater than the number of electrodes of all electrode groups and form connection groups corresponding to the electrode groups, wherein the electrodes are electrically linked using at least one lead connector (8,18) to the at least one port of the pulse generator, and wherein the method comprises the steps of: (a) selecting pre-defined pairs of connections, wherein the connections of each pair are assigned to different connection groups, wherein at least one connection is varied in one pre-defined pair with regard to any other selected pair; (b) measuring an impedance value between the connections of each of the selected pairs of connections; and (c) checking whether the electrical links of the electrodes and the connections are correctly established based on determined pre-conditioned impedance values and/or the measured impedance values of the selected pairs of connections, wherein the pre-conditioned impedance value is determined for each of the selected pairs of connections such that it provides a pre-conditioning of the respective measured impedance value for attenuating unwanted noise. (a) selecting pre-defined pairs of connections, wherein the connections of each pair are assigned to different connection groups, wherein at least one connection is varied in one pre-defined pair with regard to any other selected pair; (b) measuring an impedance value between the connections of each of the selected pairs of connections; and (c) checking whether the electrical links of the electrodes and the connections are correctly established based on determined pre-conditioned impedance values and/or the measured impedance values of the selected pairs of connections, wherein the pre-conditioned impedance value is determined for each of the selected pairs of connections such that it provides a pre-conditioning of the respective measured impedance value for attenuating unwanted noise.
A fluorinated imide salt compound represented by General Formula, in General Formula, m represents 1 or 2, n represents an integer from 1 to 4, α represents 1 or 2, and X α+ represents an α-valent metal ion, a primary ammonium ion, a secondary ammonium ion, a tertiary ammonium ion, a quaternary ammonium ion, or NH 4 +.
An apparatus comprising: a side emitting, non-lasing light emitting diode LED, the LED having a plurality of light emitting sidewalls, each light emitting sidewall having a top and a bottom; wherein the LED emits light primarily from its light emitting sidewalls; the LED includes an active layer and a reflector layer overlying the active layer and light emitting sidewalls connecting the active layer and the reflector layer, the reflector layer being proximate the top of the sidewalls; an optical element, wherein each of the light emitting sidewalls of the LED is optically coupled to the optical element, the optical element has a bottom edge, wherein light directed below the bottom edge of the optical element does not enter the optical element; wherein the bottom edge of the optical element is positioned at or below the bottom of the light emitting sidewall and an area between the active layer and a bottom surface of the reflector layer in the LED is wholly located within an entrance area of the optical element; and wherein the optical element is a collimating lens, wherein each light emitting sidewall of the LED is optically coupled to the entrance area of the collimating lens, wherein the LED is mounted on a molded lead frame that has a shaped top surface that is shaped as a bottom surface of the collimating lens, the collimating lens being molded over the molded lead frame. a side emitting, non-lasing light emitting diode LED, the LED having a plurality of light emitting sidewalls, each light emitting sidewall having a top and a bottom; wherein the LED emits light primarily from its light emitting sidewalls; the LED includes an active layer and a reflector layer overlying the active layer and light emitting sidewalls connecting the active layer and the reflector layer, the reflector layer being proximate the top of the sidewalls; an optical element, wherein each of the light emitting sidewalls of the LED is optically coupled to the optical element, the optical element has a bottom edge, wherein light directed below the bottom edge of the optical element does not enter the optical element; wherein the bottom edge of the optical element is positioned at or below the bottom of the light emitting sidewall and an area between the active layer and a bottom surface of the reflector layer in the LED is wholly located within an entrance area of the optical element; and wherein the optical element is a collimating lens, wherein each light emitting sidewall of the LED is optically coupled to the entrance area of the collimating lens, wherein the LED is mounted on a molded lead frame that has a shaped top surface that is shaped as a bottom surface of the collimating lens, the collimating lens being molded over the molded lead frame.
A free standing inorganic storage phosphor panel comprising: an inorganic storage phosphor layer comprising at least one polymer, an inorganic storage phosphor material and a copper phthalocyanine blue dye; wherein the inorganic storage phosphor layer is formed by melt compounding the at least one polymer, inorganic storage phosphor material, and copper phthalocyanine blue dye to form a melt and by then melt extruding, injection molding, or hot pressing the melt compounded material; wherein the inorganic storage phosphor material comprises particles in which 95% of the particles are less than or equal to 6.8 microns in diameter and 95% of the particles are greater than or equal to 1.0 microns in diameter; and wherein the storage phosphor layer has fewer than 5 defects per square cm. an inorganic storage phosphor layer comprising at least one polymer, an inorganic storage phosphor material and a copper phthalocyanine blue dye; wherein the inorganic storage phosphor layer is formed by melt compounding the at least one polymer, inorganic storage phosphor material, and copper phthalocyanine blue dye to form a melt and by then melt extruding, injection molding, or hot pressing the melt compounded material; wherein the inorganic storage phosphor material comprises particles in which 95% of the particles are less than or equal to 6.8 microns in diameter and 95% of the particles are greater than or equal to 1.0 microns in diameter; and wherein the storage phosphor layer has fewer than 5 defects per square cm.
A method for determining a capacity that is needed on an lub link to fulfill Grade of Service, GoS, requirements in a Universal Mobile Telecommunications System, UMTS, Terrestrial Radio Access Network, UTRAN, for both Dedicated Channel, DCHtraffic and High-Speed Downlink Packet Access, HSDPA, traffic, wherein said lub link comprises a link between a Radio Network Controller, RNC, and a Node-B, said method comprising the steps of: determining a bandwidth demand of said HSDPA traffic, ElasticDim; calculating an average bandwidth of said DCH traffic on said lub interface, BW use,avg; setting an initial capacity to a capacity need of said DCH traffic, CapacityDCH, wherein at least said initial capacity will be provided for said DCH traffic on the lub link; and, increasing a value of the initial capacity until a quality requirement of said HSDPA traffic is fulfilled, a maximum value of the initial capacity reached being a capacity, DimensionedCapacity, that is needed for DCH and HSDPA traffic for said lub interface. determining a bandwidth demand of said HSDPA traffic, ElasticDim; calculating an average bandwidth of said DCH traffic on said lub interface, BW use,avg; setting an initial capacity to a capacity need of said DCH traffic, CapacityDCH, wherein at least said initial capacity will be provided for said DCH traffic on the lub link; and, increasing a value of the initial capacity until a quality requirement of said HSDPA traffic is fulfilled, a maximum value of the initial capacity reached being a capacity, DimensionedCapacity, that is needed for DCH and HSDPA traffic for said lub interface.
Pre-polymer according to structure X-(R 2 -O) n -CH 2 -O-(R 1 -O) m -CH 2 -(O-R 2) p -X wherein R 1 and R 2 can be the same or different and are selected from alkane chains containing 2-10 carbon atoms, X is a halogen atom, and n, m, and p are integers that can be the same or different and have a value in the range 1-6.
A cleaning device used to clean an aerosol-generating device, the cleaning device comprising: a power receiver configured to wirelessly receive electrical energy from the aerosol-generating device; a power converter configured to convert the electrical energy received by the power receiver to mechanical energy; and a cleaning member configured to clean the aerosol-generating device by the mechanical energy, characterized in that the power receiver is configured to receive electrical energy from the aerosol-generating device when the cleaning device is combined with the aerosol-generating device. a power receiver configured to wirelessly receive electrical energy from the aerosol-generating device; a power converter configured to convert the electrical energy received by the power receiver to mechanical energy; and a cleaning member configured to clean the aerosol-generating device by the mechanical energy, characterized in that the power receiver is configured to receive electrical energy from the aerosol-generating device when the cleaning device is combined with the aerosol-generating device.
A golf club head having a hitting surface for impacting a golf ball; the head comprising: a transducer for converting mechanical energy from said surface impacting a golf ball to an electrical energy; a circuit for selectively steering and applying said electrical energy; and an actuator mechanically coupled to said hitting surface and responsive to said electrical energy for affecting said hitting surface and altering golf ball impact in response to said electrical energy, wherein said actuator is configured to cause said hitting surface to vibrate at an ultra-sonic frequency.
Cooling apparatus, at least comprising a housing frame, a heat exchanger, an electrically driveable fan unit, a control unit and a sensor unit, wherein the fan unit is arranged in such a way that, when the fan unit is in operation, there is generated a first air stream in the direction of a first surface of the heat exchanger, wherein the housing frame has at least one air channel with an air-inlet opening and with an air-outlet opening, wherein the air channel is formed so as to be parallel to the first surface of the heat exchanger, so that, through the air channel, it is possible for there to be conducted a second air stream along the first surface, wherein at least one measurement variable is detectable by means of the sensor unit and the fan unit is controllable by means of the control unit according to the at least one detected measurement variable, characterized in that a second surface of the heat exchanger, which is situated opposite the first surface of the heat exchanger, is configured to be arranged in thermally conductive contact with a heat-emitting device (210, 210'), wherein the cooling apparatus is mountable onto a housing of the heat-emitting device.
A security device attached to an object, the security device having at least two security features, where at least one of said security features is a tamper-evident security feature, which is configured to alter irreversibly upon a mechanical tampering with the security device, and at least one other of said security features is a robust security feature, which is robust against the mechanical tampering with the security device, wherein the at least two security features can be extracted from at least one image of the security device with a programmable device comprising a camera at least in an intact state of the security device, characterized in that the at least one tamper-evident security feature and the at least one robust security feature are features of a structure, which is partitioned into at least two sections (22, 23), wherein at least one section has stronger adhesion to the object and at least one other section has stronger adhesion to a carrier material of the security device and the structure partially destroying or splitting the security device if the security device is being tampered with, where the at least one robust security feature is distributed among the at least two sections (22, 23), such that the at least one section remaining on the object and/or the at least one other section can be authenticated.
A method for differentiating background and foreground of a scenery in images recorded by an electronic camera, wherein the background shows an arbitrary depiction coded with a coding such that the depiction is recognisable for a direct observer of the background, and wherein, by means of the coding, the background is differentiated from the uncoded foreground in a signal produced by an image sensor of the camera, said image sensor recording the images, characterised in that the coding of the depiction comprises that the background shows periodically alternatingly patterns which complement each other within one period to form the complete depiction, and in that the background is differentiated from the foreground in the signal of the image sensor on the basis of the periodically alternating pattern, wherein an exposure frequency of the image sensor and the showing of the pattern are synchronised with each other. and wherein, by means of the coding, the background is differentiated from the uncoded foreground in a signal produced by an image sensor of the camera, said image sensor recording the images, characterised in that the coding of the depiction comprises that the background shows periodically alternatingly patterns which complement each other within one period to form the complete depiction, and in that the background is differentiated from the foreground in the signal of the image sensor on the basis of the periodically alternating pattern, wherein an exposure frequency of the image sensor and the showing of the pattern are synchronised with each other.