mhurhangee/ep-ind-claims huggingface dataset:
A rain protection system comprising: a pump having a pump housing; a power source housed within a control housing; a control unit housed inside the control housing, wherein the control unit is configured to at least partially control the pump; a cover hingedly coupled to the control housing such that the cover is adapted to move between an open state and a closed state, wherein the cover allows access to the power source in the open state of the cover; the cover is biased by a biasing means to remain in the closed state of the cover. characterized in that: the cover is made of a transparent material, allowing visual access to the power source on account of the transparent material, wherein the cover includes a ribbed portion near to a part of the cover which contacts the control housing, with the ribbed portion overlapping a corresponding ribbed portion of the control housing providing a snug fit of the cover with the control housing. a pump having a pump housing; a power source housed within a control housing; a control unit housed inside the control housing, wherein the control unit is configured to at least partially control the pump; a cover hingedly coupled to the control housing such that the cover is adapted to move between an open state and a closed state, wherein the cover allows access to the power source in the open state of the cover; the cover is biased by a biasing means to remain in the closed state of the cover. characterized in that: the cover is made of a transparent material, allowing visual access to the power source on account of the transparent material, wherein the cover includes a ribbed portion near to a part of the cover which contacts the control housing, with the ribbed portion overlapping a corresponding ribbed portion of the control housing providing a snug fit of the cover with the control housing. the cover is made of a transparent material, allowing visual access to the power source on account of the transparent material, wherein the cover includes a ribbed portion near to a part of the cover which contacts the control housing, with the ribbed portion overlapping a corresponding ribbed portion of the control housing providing a snug fit of the cover with the control housing.
A heat dissipation apparatus, comprising an adjustable heat dissipation component, a fixed substrate, a rotating shaft, and a connecting component, wherein an electronic component is disposed on one side of the adjustable heat dissipation component, and the rotating shaft is disposed on another side of the adjustable heat dissipation component; and one end of the connecting component is connected to the adjustable heat dissipation component, another end of the connecting component is connected to the fixed substrate, and the connecting component drives the adjustable heat dissipation component to rotate by using the rotating shaft; characterized in that a first heat dissipation fin column is disposed on the fixed substrate, and the first heat dissipation fin column comprises a plurality of first heat dissipation fins. an electronic component is disposed on one side of the adjustable heat dissipation component, and the rotating shaft is disposed on another side of the adjustable heat dissipation component; and one end of the connecting component is connected to the adjustable heat dissipation component, another end of the connecting component is connected to the fixed substrate, and the connecting component drives the adjustable heat dissipation component to rotate by using the rotating shaft; characterized in that a first heat dissipation fin column is disposed on the fixed substrate, and the first heat dissipation fin column comprises a plurality of first heat dissipation fins.
Hoist (10,30,40,140) with at least one cable drive (12,42,142) and a load reception means suspended therefrom, said cable drive (12,42,142) comprises a plurality of cable strands (14,16,34;44,46,48,50), namely at least - two outer cable strands (14,16) which are wound onto mutually offset sections (20,22) of a common cable drum or two commonly driven cable drums, - and a third cable strand wound in a center plane perpendicular to the drum access between the cable drum sections (20,22) of the outer cable strands (14,16) onto a center cable drum section, wherein these three cable strands (14,16,34;44,46,48,50) run down to the load reception means in a way that the two outer cable strands (14,16) and the third cable strand form the edges of a pyramid standing on its top, characterized in that the two outer cable strands (14,16) run down directly from the drum section and are inclined towards the center plane by a skew angle (α) and are wound helically on their respective cable drum sections (20,22) such that the pitch angles of their windings correspond to their skew angles (α), and the third cable strand runs down towards the load receiving means over a guide roller spaced apart from the cable drum. - two outer cable strands (14,16) which are wound onto mutually offset sections (20,22) of a common cable drum or two commonly driven cable drums, - and a third cable strand wound in a center plane perpendicular to the drum access between the cable drum sections (20,22) of the outer cable strands (14,16) onto a center cable drum section,
A method for estimating a relative proportion of at least one of a plurality of cell populations in a biological sample, said method comprising: a) using a biological sample comprising said plurality of cell populations; b) generating a gene expression profile from said biological sample, wherein said gene expression profile comprises combinations of features associated with said plurality of cell populations; c) optimizing a v(nu) support vector regression, v(nu)-SVR, between said gene expression profile and a reference matrix of cell subset gene expression feature signatures for a second plurality of cell populations, wherein said gene expression profile is modeled as a linear combination of said reference matrix of cell subset gene expression feature signatures, wherein said optimizing comprises solving for a set of regression coefficients of said support vector regression wherein said solution minimizes a linear ε-insensitive loss function and an L 2 -norm penalty function; and d) estimating said relative proportion of said at least one of said plurality of cell populations among said second plurality of cell populations present in said biological sample based on said set of regression coefficients. a) using a biological sample comprising said plurality of cell populations; b) generating a gene expression profile from said biological sample, wherein said gene expression profile comprises combinations of features associated with said plurality of cell populations; c) optimizing a v(nu) support vector regression, v(nu)-SVR, between said gene expression profile and a reference matrix of cell subset gene expression feature signatures for a second plurality of cell populations, wherein said gene expression profile is modeled as a linear combination of said reference matrix of cell subset gene expression feature signatures, wherein said optimizing comprises solving for a set of regression coefficients of said support vector regression wherein said solution minimizes a linear ε-insensitive loss function and an L 2 -norm penalty function; and d) estimating said relative proportion of said at least one of said plurality of cell populations among said second plurality of cell populations present in said biological sample based on said set of regression coefficients.
A method for generating X-ray radiation, comprising: providing a liquid target in a chamber; directing an electron beam towards said liquid target such that the electron beam interacts with the liquid target to generate X-ray radiation; estimating a number of particles produced from the interaction between the electron beam and the liquid target by measuring a number of positively charged particles in the chamber and eliminating a contribution from scattered electrons to the estimated number of particles by measuring a current generated by the scattered electrons; and controlling said electron beam, and/or a temperature in a region of the liquid target in which the electron beam interacts with said target, such that the estimated number of particles is below a predetermined limit. providing a liquid target in a chamber; directing an electron beam towards said liquid target such that the electron beam interacts with the liquid target to generate X-ray radiation; estimating a number of particles produced from the interaction between the electron beam and the liquid target by measuring a number of positively charged particles in the chamber and eliminating a contribution from scattered electrons to the estimated number of particles by measuring a current generated by the scattered electrons; and controlling said electron beam, and/or a temperature in a region of the liquid target in which the electron beam interacts with said target, such that the estimated number of particles is below a predetermined limit.
A method of enhancing the shelf-life of an activated surface of a thermoplastic material, comprising: coating at least a portion of a surface of the thermoplastic material with at least one adhesion promoter to provide a coated surface; and then treating the coated surface with plasma to provide the activated surface of the thermoplastic material; wherein the thermoplastic material is polyether ether ketone, and the at least one adhesion promoter is selected from the group consisting of PEG-silane, polyvinyl alcohol, 3-Glycidoxypropyl methyldimethoxysilane, 3-Chloropropyltrimethoxysilane, vinyltriethoxysilane, zirconium acetylacetonate, and combinations thereof, wherein the activated surface has a contact angle in the range of from 0 to 40°; the presence of the at least one adhesion promoter being effective to maintain the contact angle in the range of from 0 to 40° for a time of 10 days or greater. coating at least a portion of a surface of the thermoplastic material with at least one adhesion promoter to provide a coated surface; and then treating the coated surface with plasma to provide the activated surface of the thermoplastic material; wherein the thermoplastic material is polyether ether ketone, and the at least one adhesion promoter is selected from the group consisting of PEG-silane, polyvinyl alcohol, 3-Glycidoxypropyl methyldimethoxysilane, 3-Chloropropyltrimethoxysilane, vinyltriethoxysilane, zirconium acetylacetonate, and combinations thereof, wherein the activated surface has a contact angle in the range of from 0 to 40°; the presence of the at least one adhesion promoter being effective to maintain the contact angle in the range of from 0 to 40° for a time of 10 days or greater.
A roof panel assembly for use in a roof of a vehicle, the roof panel assembly comprising: • at least one roof panel (2a, 2b), providing - a first interior surface configured to be directed to an interior space of the vehicle; and - a second interior surface configured to be directed to the interior space of the vehicle; • a support beam arranged between the first interior surface and the second interior surface; and • a projector device arranged on the support beam, wherein the projector device is configured to project a light image (221, 222) on at least one of the first interior surface and the second interior surface. • at least one roof panel (2a, 2b), providing - a first interior surface configured to be directed to an interior space of the vehicle; and - a second interior surface configured to be directed to the interior space of the vehicle; - a first interior surface configured to be directed to an interior space of the vehicle; and - a second interior surface configured to be directed to the interior space of the vehicle; • a support beam arranged between the first interior surface and the second interior surface; and • a projector device arranged on the support beam, wherein the projector device is configured to project a light image (221, 222) on at least one of the first interior surface and the second interior surface.
A computer-implemented method for updating an aircraft flight plan, comprising: retrieving recorded surveillance data including instances of aircraft positions at an airport; determining a plurality of three-dimensional surveillance cells at each end (310a, 310b) of at least one runway of the airport; computing a count of a number of aircraft positions within each surveillance cell; determining a current configuration for each runway based on the count computed for the surveillance cells of the runway; updating the flight plan of an aircraft based on the current runway configuration of the airport; and autonomously executing, by a system installed onboard the aircraft, the updated flight plan. retrieving recorded surveillance data including instances of aircraft positions at an airport; determining a plurality of three-dimensional surveillance cells at each end (310a, 310b) of at least one runway of the airport; computing a count of a number of aircraft positions within each surveillance cell; determining a current configuration for each runway based on the count computed for the surveillance cells of the runway; updating the flight plan of an aircraft based on the current runway configuration of the airport; and autonomously executing, by a system installed onboard the aircraft, the updated flight plan.
Method to assist with the reversal maneuver of a motor vehicle which is provided with a backup camera and a display screen suitable for displaying images acquired by the backup camera, comprising: - a step of acquiring a front turning angle (α av) relative to the angle of orientation of the steering wheel of the motor vehicle, - a step of acquiring the speed of the motor vehicle, - a step of calculating a dynamic gage (20") representative of the predictable trajectory of the motor vehicle, according to said front turning angle (α av) and to the speed of the motor vehicle, and - a step of displaying said dynamic gage (20") on the display screen, by superimposing the images acquired by the backup camera, characterized in that, with the motor vehicle comprising four steered wheels, the method comprises: - a step of reading an indicator relating to the number of steered wheels of the motor vehicle, and - a step of calculating, according to the speed of the motor vehicle, a rear turning angle (α ar) relative to the angle of orientation of the rear wheels of the motor vehicle, and in that the dynamic gage (20") is calculated according both to said indicator and to said rear turning angle (α ar). - a step of acquiring a front turning angle (α av) relative to the angle of orientation of the steering wheel of the motor vehicle, - a step of acquiring the speed of the motor vehicle, - a step of calculating a dynamic gage (20") representative of the predictable trajectory of the motor vehicle, according to said front turning angle (α av) and to the speed of the motor vehicle, and - a step of displaying said dynamic gage (20") on the display screen, by superimposing the images acquired by the backup camera, - a step of reading an indicator relating to the number of steered wheels of the motor vehicle, and - a step of calculating, according to the speed of the motor vehicle, a rear turning angle (α ar) relative to the angle of orientation of the rear wheels of the motor vehicle, and
Flow meter with a flow channel which can be attached to a pipe through which a fluid flows and on which a measuring unit is held which has at least two sensors (22, 24) which are spaced apart from one another and are designed as ultrasonic transducers, which couple their measuring signals in or out through at least one recess in the flow channel and are connected to a flow sensor (22, 24) which is arranged in a flow channel. and with a control unit accommodated in a control housing for activating the sensors (22, 24) and for processing the measurement signals, wherein a measurement channel is formed in the flow channel by a multi-part measurement channel insert which has at least an upper measurement channel part and a lower measurement channel part which at least partially delimit the measurement channel section, wherein the measuring channel insert is inserted through the recess, characterized by an inlet and an outlet insert (4, 6), which are attached to the measuring channel section and are also inserted through the recess, wherein the length of the measuring channel section and the inserts (4, 6) is greater than the clear width of the recess.
A low-basis-weight filter medium for air filters, comprising: glass short fibers and short fibers of hydrophobic chemical synthetic fibers each having a fiber diameter of 5 μm or less by a mass ratio (A/B) in the range of from 70/30 to 95/5, as raw material fibers of the filter medium; a hydrophobic synthetic resin-based binder is added by 3 to 10 parts by mass with respect to 100 parts by mass of the raw material fibers; and a basis weight of from 25 g/m 2 or more to 50 g/m 2 or less. glass short fibers and short fibers of hydrophobic chemical synthetic fibers each having a fiber diameter of 5 μm or less by a mass ratio (A/B) in the range of from 70/30 to 95/5, as raw material fibers of the filter medium; a hydrophobic synthetic resin-based binder is added by 3 to 10 parts by mass with respect to 100 parts by mass of the raw material fibers; and a basis weight of from 25 g/m 2 or more to 50 g/m 2 or less.
A method for welding coated steel sheets, particularly steel sheets that are coated with an aluminum-silicon metallic coating layer, wherein a configuration (1, 11, 12) of two laser beams (2, 3) is provided, wherein the laser beams act on a weld pool that is to be formed, wherein at least one laser beam rotates around a rotation axis so that the laser beams (2, 3) execute a movement relative to each other, wherein the laser beams (2, 3) are guided along a welding axis, wherein in order to achieve a mixing of the weld pool, a defined stirring effect and a defined welding speed in relation to each other are adhered to, wherein the following condition applies to the stirring effect: η = f rot v w where f rot is the rotation frequency and v W is the welding speed and wherein the following conditions apply: 4 ≤ η ≤ 120 v w 1 mm and 4 ≤ v w ≤ 14 m min.
A damper assembly comprising: a damper including a housing, a rotor in said housing and a rotor shaft extending outwardly from said housing; a damper gear disposed on a distal end of said rotor shaft; a damper bracket having a body between said damper and said damper gear and legs (132, 134) disposed outwardly of said damper and defining features therein for attaching said damper assembly in a device; characterized by cooperating engaging structures (118, 144) on said damper housing and said damper bracket for selectively engaging and disengaging said damper housing from said bracket for enabling and disabling relative rotation therebetween; and said damper bracket defining biasing structure (150, 152) operating against said damper housing and against a side of said damper gear facing said damper housing. a damper including a housing, a rotor in said housing and a rotor shaft extending outwardly from said housing; a damper gear disposed on a distal end of said rotor shaft; a damper bracket having a body between said damper and said damper gear and legs (132, 134) disposed outwardly of said damper and defining features therein for attaching said damper assembly in a device; characterized by cooperating engaging structures (118, 144) on said damper housing and said damper bracket for selectively engaging and disengaging said damper housing from said bracket for enabling and disabling relative rotation therebetween; and said damper bracket defining biasing structure (150, 152) operating against said damper housing and against a side of said damper gear facing said damper housing.
A cushioning network structure comprising a plurality of random loops arranged in a three-dimensional orientation, wherein the plurality of random loops are formed from an ethylene/a-olefin interpolymer composition having a highest DSC temperature melting peak in the range of from 90.0°C to 115.0°C; a zero shear viscosity ratio (ZSVR) in the range from 1.40 to 2.10; a density in the range of from 0.860 to 0.925 g/cc; a melt index in a range of from 1 to 25 g/ 10 minutes when measured according to ASTM D1238 at 190°C and 2.16 kg; and a molecular weight distribution (Mw/Mn) in the range of from 2.0 to 4.5.
An ion mobility spectrometer comprising a continuously operable gas purification device, the continuously operable gas purification device comprising: a housing provided with a cylinder cavity; a dry gas supply unit; a rotating barrier arranged in a radial direction of the cylinder cavity to divide the cylinder cavity into a baking cavity and a working cavity; and a rotating mechanism, wherein the housing is provided with a dry gas inlet, a dry gas outlet, a sample gas inlet and a sample gas outlet, both the dry gas inlet and the dry gas outlet are communicated with the baking cavity, while both the sample gas inlet and the sample gas outlet are communicated with the working cavity, wherein the dry gas supply unit is connected with the dry gas inlet for a dry gas supply to the dry gas inlet, wherein the baking cavity is provided with a heating unit correspondingly, and the rotating mechanism is provided at a central position of the cylinder cavity and is connected with the rotating barrier for rotating the rotating barrier at intervals, wherein the gas purification device further comprises two desiccant boxes filled with desiccants, the two desiccant boxes provided in the baking cavity and the working cavity respectively, wherein the two desiccant boxes each has a semi-cylindrical shape and is made of a closed structure, and wherein mesh holes corresponding to the sample gas inlet and the sample gas outlet are provided on a side wall of the desiccant box provided in the working cavity, and mesh holes corresponding to the dry gas inlet and the dry gas outlet are provided on a side wall of the desiccant box provided in the baking cavity. a housing provided with a cylinder cavity; a dry gas supply unit; a rotating barrier arranged in a radial direction of the cylinder cavity to divide the cylinder cavity into a baking cavity and a working cavity; and a rotating mechanism, wherein the housing is provided with a dry gas inlet, a dry gas outlet, a sample gas inlet and a sample gas outlet, both the dry gas inlet and the dry gas outlet are communicated with the baking cavity, while both the sample gas inlet and the sample gas outlet are communicated with the working cavity, wherein the dry gas supply unit is connected with the dry gas inlet for a dry gas supply to the dry gas inlet, wherein the baking cavity is provided with a heating unit correspondingly, and the rotating mechanism is provided at a central position of the cylinder cavity and is connected with the rotating barrier for rotating the rotating barrier at intervals, wherein the gas purification device further comprises two desiccant boxes filled with desiccants, the two desiccant boxes provided in the baking cavity and the working cavity respectively, wherein the two desiccant boxes each has a semi-cylindrical shape and is made of a closed structure, and wherein mesh holes corresponding to the sample gas inlet and the sample gas outlet are provided on a side wall of the desiccant box provided in the working cavity, and mesh holes corresponding to the dry gas inlet and the dry gas outlet are provided on a side wall of the desiccant box provided in the baking cavity.