mhurhangee/ep-ind-claims huggingface dataset:
A metal cage for receiving rolling elements in a roller bearing for mounting a rotating body, having two disc-shaped cage side elements arranged parallel to one another and coaxially to the bearing axis, between which cage side elements rolling elements guided on axes of rotation in operative connection with both cage side elements are received regularly spaced from one another in the direction of rotation and the cage side elements are provided with penetrations for receiving the end region of the respective axis of rotation, the cage side elements (3, 4) being connected to one another at least in sections by means of an outer web in a U-shape or fork-shape and having adjustable receiving bearings for the axes of rotation of the rolling elements on their outer surfaces parallel to the bearing axis and each end region of the axis of rotation of the rolling element being received by a carrier element of the receiving bearing that is adjustably fixed on the outside of the cage side elements (3, 4), each carrier element having a recess for receiving an end region of the axis of rotation and being formed with a threaded part which is received in a counterpart, characterized by an additional roller bearing, in particular ball bearing, which also rests on the rotating body, in particular a shaft and can be adapted to the size of the rotating body via an adjusting ring, the roller bearing, in particular ball bearing, has ball bearing pins which are mounted in a receiving body, wherein the ball bearing pins are adjustable in a direction parallel to the axis of rotation of the rotating body through elongated holes in the receiving body.
A body insertable apparatus comprising: an outer case having at least one dome-shaped end portion; an imaging unit, arranged in the outer case, that captures an image of an inside of a body into which the body insertable apparatus being inserted, and acquires an image information of the inside of the body; an illuminating unit that includes an electrode unit including two electrodes and provided in the dome-shaped end portion and in the periphery of the imaging unit, and an irradiation unit formed on a top portion of the electrode unit including the two electrodes, the irradiation unit providing a plurality of light emitting diodes that outputs an illuminating light for illuminating the inside of the body from which an image is captured by the imaging unit; and an arrangement board, provided in the outer case, on which the imaging unit and the illuminating unit are arranged respectively, whereby a distance between end surfaces (72b1) of the irradiation unit is configured to be shorter than a distance between end surfaces (72a1) of the electrode unit, and the irradiation unit is formed in a stair shape with the end surface (72b1) of the irradiation unit in a longitudinal direction being configured to be shorter than the end surface (72a1) of the electrode unit, and the light emitting diodes are arranged outside a region having a predetermined radius around the imaging unit, the predetermined radius being set larger than a field of view determined by an optical quality of an optical system of the imaging unit. an outer case having at least one dome-shaped end portion; an imaging unit, arranged in the outer case, that captures an image of an inside of a body into which the body insertable apparatus being inserted, and acquires an image information of the inside of the body; an illuminating unit that includes an electrode unit including two electrodes and provided in the dome-shaped end portion and in the periphery of the imaging unit, and an irradiation unit formed on a top portion of the electrode unit including the two electrodes, the irradiation unit providing a plurality of light emitting diodes that outputs an illuminating light for illuminating the inside of the body from which an image is captured by the imaging unit; and an arrangement board, provided in the outer case, on which the imaging unit and the illuminating unit are arranged respectively, whereby a distance between end surfaces (72b1) of the irradiation unit is configured to be shorter than a distance between end surfaces (72a1) of the electrode unit, and the irradiation unit is formed in a stair shape with the end surface (72b1) of the irradiation unit in a longitudinal direction being configured to be shorter than the end surface (72a1) of the electrode unit, and the light emitting diodes are arranged outside a region having a predetermined radius around the imaging unit, the predetermined radius being set larger than a field of view determined by an optical quality of an optical system of the imaging unit.
A system for carrying out analyses on and/or with biological sample material present in a sample arrangement region of a microfluidic sample chip, comprising the sample chip, a connector plate for receiving the sample chip, and at least one control unit, to which the connector plate is detachably connectable for transferring media and/or signals; wherein the connector plate comprises a mechanical receiving device for the microfluidic sample chip, external connecting elements, for connecting the connector plate detachably to a control unit for transferring media and/or signals, internal connecting elements, for connecting the connector plate detachably to the sample chip for transferring media and/or signals, and at least one functional element, which is arranged between the external and the internal connecting elements (23, 21), and wherein the sample chip is comprises with at least one sample channel unit, in which a microfluidic sample arrangement region is provided, for arranging and optionally culturing biological sample material therein, wherein the sample channel unit is provided with a connecting region for transferring media and/or signals; wherein the at least one functional element, which is arranged between the external and the internal connecting elements (23, 21), serves for exerting an influence on the media and/or the signals that are exchanged between the sample channel unit and the external connecting elements, or is configured for the acquisition of measuring signals.
A hair cutting device for cutting hair on a body of a subject, the hair cutting device comprising: a light source for generating light at one or more specific wavelengths corresponding to wavelengths absorbed by one or more chromophores in or on hair; a cutting element that comprises an optical waveguide that is coupled at a first end to the light source to receive light, wherein a portion of a sidewall of the optical waveguide forms a cutting face for contacting hair; a light sensor that is coupled to the optical waveguide away from the first end, wherein the light sensor is for measuring the light level in the optical waveguide and for providing an output signal representing the measured light level; and a control unit that is coupled to the light source, and coupled to the light sensor to receive the output signal, wherein the control unit is configured to determine a measure of the amount of input light transmitted across the optical waveguide from the measured light level and an input light level at the first end of the optical waveguide, wherein the measure of the amount of input light transmitted across the optical waveguide is an indication of whether the optical waveguide is in contact with hair, skin or debris; and to control the power of the light generated by the light source based on the indication of whether the optical waveguide is in contact with hair, skin or debris. a light source for generating light at one or more specific wavelengths corresponding to wavelengths absorbed by one or more chromophores in or on hair; a cutting element that comprises an optical waveguide that is coupled at a first end to the light source to receive light, wherein a portion of a sidewall of the optical waveguide forms a cutting face for contacting hair; a light sensor that is coupled to the optical waveguide away from the first end, wherein the light sensor is for measuring the light level in the optical waveguide and for providing an output signal representing the measured light level; and a control unit that is coupled to the light source, and coupled to the light sensor to receive the output signal, wherein the control unit is configured to determine a measure of the amount of input light transmitted across the optical waveguide from the measured light level and an input light level at the first end of the optical waveguide, wherein the measure of the amount of input light transmitted across the optical waveguide is an indication of whether the optical waveguide is in contact with hair, skin or debris; and to control the power of the light generated by the light source based on the indication of whether the optical waveguide is in contact with hair, skin or debris.
A nozzle for a vacuum cleaner, having: a nozzle housing, a floor cleaning roller which is rotatable on an axle relative to the nozzle housing about an axis of rotation during operation of the vacuum cleaner, a driving means producing a drive torque which is transferred to the floor cleaning roller by a transmission means, a centrifugal clutch operatively connected between the floor cleaning roller and the transmission means characterized in that the centrifugal clutch comprises: - a cup having at least one engaging element, wherein the cup is firmly connected with the floor cleaning roller, - a driver spaced radially inwardly apart from the cup and rotatable about the axis of rotation, - at least one slider which is movably retained by the driver, - and a disconnecting means retained by the driver acting with force on the slider towards the axis of rotation, wherein after exceeding a predetermined rotation speed of the driver a centrifugal force acting on the slider exceeds the radial force what causes that the slider moves outward from the driver and connects with the engaging element then the drive is engaged with the cup and the drive torque which is produced by the driving means can be transmitted by the transmission means and the centrifugal clutch to the floor cleaning roller. - a cup having at least one engaging element, wherein the cup is firmly connected with the floor cleaning roller, - a driver spaced radially inwardly apart from the cup and rotatable about the axis of rotation, - at least one slider which is movably retained by the driver, - and a disconnecting means retained by the driver acting with force on the slider towards the axis of rotation,
A method for nucleic acid purification, comprising: providing a formalin-fixed paraffin-embedded (FFPE) tissue sample in an aqueous solution, in a vessel; providing an immiscible liquid or a precursor phase thereof, having a density that is less than the density of the aqueous solution and a boiling point that is greater than the boiling point of the aqueous solution, and being either silicone oil or a solid silicone oil/wax mixture, in the vessel; performing a liquid-liquid extraction to remove the paraffin from the tissue sample; and, thereafter, performing a nucleic acid purification step on the tissue sample; and wherein the liquid-liquid extraction step and the nucleic acid purification step are performed in a single microfluidic device, and wherein the liquid-liquid extraction step further comprises raising the temperature of the aqueous solution in the vessel above the melting point of the paraffin embedding the tissue sample. providing a formalin-fixed paraffin-embedded (FFPE) tissue sample in an aqueous solution, in a vessel; providing an immiscible liquid or a precursor phase thereof, having a density that is less than the density of the aqueous solution and a boiling point that is greater than the boiling point of the aqueous solution, and being either silicone oil or a solid silicone oil/wax mixture, in the vessel; performing a liquid-liquid extraction to remove the paraffin from the tissue sample; and, thereafter, performing a nucleic acid purification step on the tissue sample; and wherein the liquid-liquid extraction step and the nucleic acid purification step are performed in a single microfluidic device, and wherein the liquid-liquid extraction step further comprises raising the temperature of the aqueous solution in the vessel above the melting point of the paraffin embedding the tissue sample.
A compound of Formula I or a pharmaceutically acceptable salt thereof: wherein: R is H, an ammonium ion, an alkylammonium ion, an alkaline earth metal ion, a rare earth metal ion, or an alkyl group; W is a bond, -NHC -, -CH(NH 2)-, -NH-C -NH-, -C -NH-, -C -NH-CH(COOH)-, -O-(CH 2) n -O-(CH 2) n -, -(CH 2) n O(CH 2) n O(CH 2) n -, -CH(NHFmoc)-; Z is a bond, -CO -, -NH-, -NHC -, -NH-C -NH-, -NH-C -(CH 2) n -, -NH-C -CH(NH 2)-, -C -NH-CH(COOH)-; or -NH-C -C 6 H 4 -(CH 2) n -NH-; NR a R b is a chelator group of Formula: R t is H, a C 1 -C 8 alkyl group, an ammonium ion, an alkylammonium ion, or an alkali or alkaline earth metal ion; e is an integer from 0 to 15; f is an integer from 0 to 15; g is an integer from 0 to 15; and n is an integer from 0 to 10. R is H, an ammonium ion, an alkylammonium ion, an alkaline earth metal ion, a rare earth metal ion, or an alkyl group; W is a bond, -NHC -, -CH(NH 2)-, -NH-C -NH-, -C -NH-, -C -NH-CH(COOH)-, -O-(CH 2) n -O-(CH 2) n -, -(CH 2) n O(CH 2) n O(CH 2) n -, -CH(NHFmoc)-; Z is a bond, -CO -, -NH-, -NHC -, -NH-C -NH-, -NH-C -(CH 2) n -, -NH-C -CH(NH 2)-, -C -NH-CH(COOH)-; or -NH-C -C 6 H 4 -(CH 2) n -NH-; NR a R b is a chelator group of Formula: R t is H, a C 1 -C 8 alkyl group, an ammonium ion, an alkylammonium ion, or an alkali or alkaline earth metal ion; e is an integer from 0 to 15; f is an integer from 0 to 15; g is an integer from 0 to 15; and n is an integer from 0 to 10.
A method for preparing a passivated sintered crystalline hydroxyapatite powder (pHA) including the steps of: a) providing a powder of sintered crystalline hydroxyapatite (raw HA) with the chemical formula (Ca 10 (PO 4) 6 2), b) heating the raw HA powder to a temperature between 300 and 900°C for between 10 minutes and 10 hours to obtain a passivated sintered crystalline hydroxyapatite powder (pHA). a) providing a powder of sintered crystalline hydroxyapatite (raw HA) with the chemical formula (Ca 10 (PO 4) 6 2), b) heating the raw HA powder to a temperature between 300 and 900°C for between 10 minutes and 10 hours to obtain a passivated sintered crystalline hydroxyapatite powder (pHA).
A method of measuring physiologically relevant motion of a subject; said method comprising: a) measuring automatically micromovements of a subject not easily recognizable by the naked eye and measuring automatically at least one non-motion biometric of the subject, wherein the micromovements of the subject and the at least one biometric are measured simultaneously over a period of time; b) determining automatically a noise-to-signal ratio for the micromovements measured in step a) for each of a plurality of time intervals within the period of time and for each of a plurality of ranges of values for the biometric measured in step a); and c) identifying automatically at least one range of the plurality of ranges of values for the biometric and at least one time interval of the plurality of time intervals in which the noise-to-signal ratio is less than one as having micromovements of a physiologically relevant motion. a) measuring automatically micromovements of a subject not easily recognizable by the naked eye and measuring automatically at least one non-motion biometric of the subject, wherein the micromovements of the subject and the at least one biometric are measured simultaneously over a period of time; b) determining automatically a noise-to-signal ratio for the micromovements measured in step a) for each of a plurality of time intervals within the period of time and for each of a plurality of ranges of values for the biometric measured in step a); and c) identifying automatically at least one range of the plurality of ranges of values for the biometric and at least one time interval of the plurality of time intervals in which the noise-to-signal ratio is less than one as having micromovements of a physiologically relevant motion.
A power storage module comprising: a plurality of power storage cells stacked along a first direction; an end plate provided at an end of a stack of the plurality of power storage cells; and a restraint member that restrains the end plate and the plurality of power storage cells in the first direction, wherein the restraint member includes a thin portion, a thick portion, and a stepped surface between the thin portion and the thick portion, the thin portion and the thick portion being formed in one piece, and the stepped surface is in abutment with the end plate in the first direction. a plurality of power storage cells stacked along a first direction; an end plate provided at an end of a stack of the plurality of power storage cells; and a restraint member that restrains the end plate and the plurality of power storage cells in the first direction, wherein the restraint member includes a thin portion, a thick portion, and a stepped surface between the thin portion and the thick portion, the thin portion and the thick portion being formed in one piece, and the stepped surface is in abutment with the end plate in the first direction.
A polypeptide fragment comprising an amino-terminal fragment of the PA subunit of a viral RNA-dependent RNA polymerase possessing endonuclease activity, wherein said PA subunit is from Influenza A 2009 pandemic H1N1 virus according to SEQ ID NO: 2, wherein the N-terminus of the polypeptide fragment is identical to or corresponds to amino acid position 1 and the C-terminus of the polypeptide fragment is identical to or corresponds to an amino acid at a position selected from positions 190 to 198 of the amino acid sequence of the PA subunit according to SEQ ID NO: 2, or is a variant thereof having 90% sequence identity to SEQ ID NO: 2, wherein said variant comprises the amino acid serine at an amino acid position 186 according to SEQ ID NO: 2 or at an amino acid position corresponding thereto and retains the endonuclease activity.
An air-deployable unattended ground sensor comprising: a seismic sensor (16; 150) operable to detect seismic waves incident upon the ground sensor and to generate seismic data therefrom; a transmitter operable to transmit wirelessly signals from the ground sensor; a controller operable to receive signals from the seismic sensor (16; 150) corresponding to the seismic data and to send signals to the transmitter for onward transmission; a power supply (18; 160) arranged to provide power to the ground sensor; an outer body within which the seismic sensor (16; 150), the controller and the power supply (18; 160) are housed; and a rotor provided at one end of the outer body wherein the rotor is capable of freewheeling; characterized in that: the air-deployable unattended ground sensor further comprises a switch; and the power supply (18; 160) is arranged to provide power to the ground sensor upon activation of the switch during said deployment wherein the switch is arranged to be activated by said rotation of the rotor. a seismic sensor (16; 150) operable to detect seismic waves incident upon the ground sensor and to generate seismic data therefrom; a transmitter operable to transmit wirelessly signals from the ground sensor; a controller operable to receive signals from the seismic sensor (16; 150) corresponding to the seismic data and to send signals to the transmitter for onward transmission; a power supply (18; 160) arranged to provide power to the ground sensor; an outer body within which the seismic sensor (16; 150), the controller and the power supply (18; 160) are housed; and a rotor provided at one end of the outer body wherein the rotor is capable of freewheeling; characterized in that: the air-deployable unattended ground sensor further comprises a switch; and the power supply (18; 160) is arranged to provide power to the ground sensor upon activation of the switch during said deployment wherein the switch is arranged to be activated by said rotation of the rotor. the air-deployable unattended ground sensor further comprises a switch; and the power supply (18; 160) is arranged to provide power to the ground sensor upon activation of the switch during said deployment wherein the switch is arranged to be activated by said rotation of the rotor.
A mould mat for producing bone cement pellets, the mould mat containing cavities (16,26) wherein the size, spacing and geometric arrangement of cavities is such that any straight line drawn along the full length of the mould mat parallel to an edge of the mould mat in at least one direction and within the arrangement of cavities on the mat will always intersect a plurality of cavities; wherein the mould mat contains cavities on both sides (10,20) thereof; and wherein the ratio of cavity area to area of the cavity array, i.e. the cavity-to-total area, is one of: i) from 0.31 to about 0.36 for cavities which are about 3 mm in diameter; or ii) from 0.43 to about 0.49 for cavities which are about 4.8 mm in diameter; or iii) from 0.50 to about 0.55 for cavities which are about 6 mm in diameter. i) from 0.31 to about 0.36 for cavities which are about 3 mm in diameter; or ii) from 0.43 to about 0.49 for cavities which are about 4.8 mm in diameter; or iii) from 0.50 to about 0.55 for cavities which are about 6 mm in diameter.
A computer-implemented method, comprising: generating, at each delegate device (116; 122; 128; 130; 138) and each non-delegate device (114; 118; 120; 124; 126; 132-136) of a logical device hierarchy being a hierarchical tree, a data cube, wherein the logical device hierarchy comprises more than one level, wherein each level comprises one or more groups, and wherein each group comprises one delegate device and one or more non-delegate devices (124; 126); receiving, at each delegate device, data cubes from the one or more non-delegate devices associated with the same group; receiving, at each delegate device, data cubes from delegate devices (130; 138) of a different group (110; 112), and wherein that delegate device is the parent of the delegate devices (130; 138) associated with a different group (110; 112); aggregating, at each delegate device, the received data cubes into a weighted data cube; and sending, from each delegate device, the weighted data cube to the parent of the delegate device. generating, at each delegate device (116; 122; 128; 130; 138) and each non-delegate device (114; 118; 120; 124; 126; 132-136) of a logical device hierarchy being a hierarchical tree, a data cube, wherein the logical device hierarchy comprises more than one level, wherein each level comprises one or more groups, and wherein each group comprises one delegate device and one or more non-delegate devices (124; 126); receiving, at each delegate device, data cubes from the one or more non-delegate devices associated with the same group; receiving, at each delegate device, data cubes from delegate devices (130; 138) of a different group (110; 112), and wherein that delegate device is the parent of the delegate devices (130; 138) associated with a different group (110; 112); aggregating, at each delegate device, the received data cubes into a weighted data cube; and sending, from each delegate device, the weighted data cube to the parent of the delegate device.