mhurhangee/ep-ind-claims huggingface dataset:
A handheld electronic device, comprising: a display having a perimeter, the perimeter being part of the display; a plurality of touch sensors formed along the perimeter for making at least a portion of the display and at least a portion of the perimeter touch-sensitive; and a processor communicatively coupled to the plurality of touch sensors, the processor configured for: using one or more of the plurality of touch sensors to detect a first touch at the perimeter, upon detecting the first touch, causing a visual guide to be displayed at the perimeter, detecting a second touch proximate to the displayed visual guide, and upon detecting the second touch, initiating an operation. a display having a perimeter, the perimeter being part of the display; a plurality of touch sensors formed along the perimeter for making at least a portion of the display and at least a portion of the perimeter touch-sensitive; and a processor communicatively coupled to the plurality of touch sensors, the processor configured for: using one or more of the plurality of touch sensors to detect a first touch at the perimeter, upon detecting the first touch, causing a visual guide to be displayed at the perimeter, detecting a second touch proximate to the displayed visual guide, and upon detecting the second touch, initiating an operation. using one or more of the plurality of touch sensors to detect a first touch at the perimeter, upon detecting the first touch, causing a visual guide to be displayed at the perimeter, detecting a second touch proximate to the displayed visual guide, and upon detecting the second touch, initiating an operation.
A method (200, 300) for controlling diversity receivers in a wireless communication device, wherein the wireless communication device is in an idle mode, the method comprising the steps of: operating the first receiver and collecting coverage statistics S1, operating the first receiver and the second receiver and collecting coverage statistics S2, using the first receiver and the second receiver for diversity, if coverage statistics S2 is greater than coverage statistics S1, and using the second receiver for background scanning of channels, if coverage statistics S2 is not greater than coverage statistics S 1; wherein the first receiver is camped on a current system; and using the second receiver for background scanning comprises: while the first receiver is active, scanning a next channel on a scan list with the second receiver; acquiring a channel; determining if the channel belongs to a more preferred system than the current system; and if the channel belongs to a more preferred system than the current system, switching to the more preferred system. operating the first receiver and collecting coverage statistics S1, operating the first receiver and the second receiver and collecting coverage statistics S2, using the first receiver and the second receiver for diversity, if coverage statistics S2 is greater than coverage statistics S1, and using the second receiver for background scanning of channels, if coverage statistics S2 is not greater than coverage statistics S 1; wherein the first receiver is camped on a current system; and using the second receiver for background scanning comprises: while the first receiver is active, scanning a next channel on a scan list with the second receiver; acquiring a channel; determining if the channel belongs to a more preferred system than the current system; and if the channel belongs to a more preferred system than the current system, switching to the more preferred system. while the first receiver is active, scanning a next channel on a scan list with the second receiver; acquiring a channel; determining if the channel belongs to a more preferred system than the current system; and if the channel belongs to a more preferred system than the current system, switching to the more preferred system.
Method for analysing a real dental situation of a patient, for simulation purposes, the method comprising the following successive steps: A) at a current time, acquiring a current image representing a real dental scene as observed by an operator; B) determining a virtual dental scene based on the representation of the real dental scene on the current image, the virtual dental scene comprising a representation of the patient's arch as anticipated for a future simulation time and/or a representation of an orthodontic device worn by the teeth of the arch as anticipated for a future simulation time, the simulation time being later than the current time by more than 1 day; C) displaying the current image on a screen and presenting the virtual dental scene superimposed with the representation of the real dental scene on the current image displayed on the screen, transparently or not transparently over said representation, the acquisition being performed by way of a mobile telephone or a tablet, in which method the patient acquires said current image in step A), and looks at the screen in step C). A) at a current time, acquiring a current image representing a real dental scene as observed by an operator; B) determining a virtual dental scene based on the representation of the real dental scene on the current image, the virtual dental scene comprising a representation of the patient's arch as anticipated for a future simulation time and/or a representation of an orthodontic device worn by the teeth of the arch as anticipated for a future simulation time, the simulation time being later than the current time by more than 1 day; C) displaying the current image on a screen and presenting the virtual dental scene superimposed with the representation of the real dental scene on the current image displayed on the screen, transparently or not transparently over said representation,
A solid-state imaging apparatus including: a first board having a first surface and a second surface, wherein a solid-state imaging element is mounted on the first surface, and a signal processing circuit section that processes an output signal from the solid-state imaging element is mounted on the second surface; a second board on which a power supplying circuit section is mounted, wherein the power supplying circuit section is configured to supply power to the solid-state imaging element and the signal processing circuit section; a case housing the first board and the second board; and a heat dissipation plate (50, 50B) which is placed between the second surface of the first board and the second board to cover the power supplying circuit section, and which has an electrically conductive property and a thermally conductive property, characterized in that an end portion of the heat dissipation plate, is bent and extends along an inner wall of the case, has spring property and elastically butts against the case. a first board having a first surface and a second surface, wherein a solid-state imaging element is mounted on the first surface, and a signal processing circuit section that processes an output signal from the solid-state imaging element is mounted on the second surface; a second board on which a power supplying circuit section is mounted, wherein the power supplying circuit section is configured to supply power to the solid-state imaging element and the signal processing circuit section; a case housing the first board and the second board; and a heat dissipation plate (50, 50B) which is placed between the second surface of the first board and the second board to cover the power supplying circuit section, and which has an electrically conductive property and a thermally conductive property, characterized in that an end portion of the heat dissipation plate, is bent and extends along an inner wall of the case, has spring property and elastically butts against the case.
Heat exchanger, in particular an exchanger for an air-conditioning circuit of a vehicle, allowing an exchange of heat between first and second fluids, said exchanger comprising a plurality of tubes for circulation of the first fluid stacked on top of each other, and at least one collector comprising a collector plate, said collector plate comprising openings for insertion of the ends of the tubes, said ends of said tubes being assembled at least two by two in a same of said insertion openings of the collector plate, characterized in that said collector comprises an intermediate reinforcing plate comprising openings for passage of the fluid and resting on said collector plate, which reinforcing plate comprises webs, said collector plate comprises collars bordering said openings of said collector plate, and said collector is configured such that said collars rest on said webs.
A steel sheet surface treatment agent, comprising an aqueous urethane resin composition obtained by dispersing in an aqueous medium a urethane resin obtained by reacting a urethane prepolymer having an isocyanate group and a terminator containing an alcohol solvent, wherein the urethane prepolymer is obtained by reacting a polyol and a polyisocyanate containing an aromatic polyisocyanate, wherein the polyol includes a polyether polyol, wherein the alcohol solvent includes hexanol, heptanol, octanol, nonanol, undecanol, 1,2-propanediol, 1,3-propanediol, 1,2-butanediol, 1,3-butanediol, 1,4-butanediol, 2,3-butanediol, 1,2-pentanediol, 1,5-pentanediol, 1,2-hexanediol, or 1,6-hexanediol, wherein the boiling point of the alcohol solvent is in the range of from 150 to 350°C, wherein the number average molecular weight of the alcohol solvent is 500 or less, and wherein the content of the alcohol solvent is in the range of from 0.1 to 10 parts by mass relative to 100 parts by mass of the urethane prepolymer. wherein the urethane prepolymer is obtained by reacting a polyol and a polyisocyanate containing an aromatic polyisocyanate, wherein the polyol includes a polyether polyol, wherein the alcohol solvent includes hexanol, heptanol, octanol, nonanol, undecanol, 1,2-propanediol, 1,3-propanediol, 1,2-butanediol, 1,3-butanediol, 1,4-butanediol, 2,3-butanediol, 1,2-pentanediol, 1,5-pentanediol, 1,2-hexanediol, or 1,6-hexanediol, wherein the boiling point of the alcohol solvent is in the range of from 150 to 350°C, wherein the number average molecular weight of the alcohol solvent is 500 or less, and wherein the content of the alcohol solvent is in the range of from 0.1 to 10 parts by mass relative to 100 parts by mass of the urethane prepolymer.
An image reading apparatus, comprising: a light source (2a, 2b) configured to irradiate an original with light; an optical system configured to condense and image the light reflected from the original; photoelectric conversion means including a light receiving portion disposed at an imaging position of the optical system so as to receive the light from the optical system, for converting the light received by the light receiving portion into an electric signal; and light passing and blocking means disposed between the optical system and the photoelectric conversion means, a part of the light passing and blocking means being provided with an aperture through which convergent light, which is the light converged from the optical system onto the photoelectric conversion means, passes, other part than the aperture of the light passing and blocking means blocks non-convergent light, which is the light not converged from the optical system onto the photoelectric conversion means, characterized in that the light passing and blocking means comprises an inclined surface (60a, 60b) provided in a periphery of the aperture, the inclined surface (60a, 60b) being inclined so that the aperture gets smaller from the optical system toward the photoelectric conversion means, and a hypothetical extension plane (60aa, 60bb) extending from the inclined surface (60a, 60b) toward the photoelectric conversion means intersects with the optical axis and does not intersect with the light receiving portion. a light source (2a, 2b) configured to irradiate an original with light; an optical system configured to condense and image the light reflected from the original; photoelectric conversion means including a light receiving portion disposed at an imaging position of the optical system so as to receive the light from the optical system, for converting the light received by the light receiving portion into an electric signal; and light passing and blocking means disposed between the optical system and the photoelectric conversion means, a part of the light passing and blocking means being provided with an aperture through which convergent light, which is the light converged from the optical system onto the photoelectric conversion means, passes, other part than the aperture of the light passing and blocking means blocks non-convergent light, which is the light not converged from the optical system onto the photoelectric conversion means, characterized in that the light passing and blocking means comprises an inclined surface (60a, 60b) provided in a periphery of the aperture, the inclined surface (60a, 60b) being inclined so that the aperture gets smaller from the optical system toward the photoelectric conversion means, and a hypothetical extension plane (60aa, 60bb) extending from the inclined surface (60a, 60b) toward the photoelectric conversion means intersects with the optical axis and does not intersect with the light receiving portion.
Method for generating SR images with improved image resolution, wherein a sequence of individual images (6, 7, 8) composed of pixels (9, 10) in a non-visible spectral range is taken and the individual images (6, 7, 8) are combined in an optimisation process to form an SR image such that the individual images (6, 7, 8) of the sequence can be modelled as samples of the SR image by sampling functions, wherein an energy function is optimised in the optimisation process, wherein the energy function evaluates a deviation of the individual images (6, 7, 8) from the SR image imaged by a mathematical model which describes the imaging properties of a measuring device used to take the individual images (6, 7, 8), characterised in that in a first step, an optical flow to the individual images (6, 7, 8) of the sequence is automatically calculated and a displacement vector field (11, 12) describing the optical flow is allocated to each individual image (6, 7, 8), that in a second step, the individual images (6, 7) are segmented into at least two segments (20, 21, 22, 23, 24, 25), wherein the pixels (9, 10) within a segment (20, 21, 22, 23, 24, 25) each have a displacement vector (14, 15, 16, 17, 18, 19) in a predefined sub-range of the value range of the displacement vector field (11, 12), and that in a third step, the optimisation process is carried out, wherein for the segments (20, 21, 22, 23, 24, 25) in each case at least one separate variation parameter is varied, that from the subdivisions of the individual images (6, 7, 8) into segments (20, 21, 22, 23, 24, 25), in each case a subdivision of the SR image into SR segments (35, 36, 37) is derived, and that the sampling function or point spread function (38, 39, 40, 41, 42, 43, 44) allocated to a segment (20, 21, 22, 23, 24, 25) of an individual image (6, 7, 8) is applied to an SR segment (20, 21, 22, 23, 24, 25) of the SR image (35, 36, 37), which is derived from the segment.
A module for the construction of a recreational track, particularly a bicycle track, having a frame on which the modules are placed, wherein the module has an upper part intended for riding and making a curved surface, and in the top view it has a quadrilateral-like shape with two sides in the shape of arches, a rear wall and a front wall, wherein the rear wall and the front wall form the base of the module, as well as the left face wall and an opposite right face wall, which are placed between the rear wall and the front wall, wherein in the side view facing the rear wall, the rear wall has a quadrilateral shape, the sides of which converge upwards at an acute angle, and in the side view facing the right or the left face wall, the front wall has the shape of an arch connecting the upper part with the base of the module, wherein the left face wall and the right face wall form an acute angle in a top view, and when viewed in side view facing the left face wall they form the curved surface making the upper part of the module, which is concave towards the base formed by the rear wall and the front wall.
Sensor element for gas sensors for determining the concentration of particles in gas mixtures, in particular soot sensors, comprising at least one first measurement electrode (14, 16) which is mounted on an electrically insulating substrate, and comprising at least one second measurement electrode (14a, 16a), wherein a voltage can be applied to the first and to the second measurement electrode, wherein at least the first measurement electrode is at least partially covered by a porous material (18, 20) which is open to diffusion of the particles to be determined, wherein the first and the second measurement electrode (14, 14a, 16, 16a) are arranged in different layer levels of the sensor element, characterized in that the first measurement electrode and a further first measurement electrode (14, 16) are mounted directly on a large surface of the substrate and are surrounded by the material (18, 20) which is open to diffusion of the particles to be determined, in that the second measurement electrode and a further second measurement electrode (14a, 16a) are provided on the further large surface which is formed by the material (18, 20) which is open to diffusion of the particles to be determined.
A method of estimating core temperatures of battery cells in a battery pack, the method comprising: a) dynamically receiving a surface temperature of less than all of the battery cells in the battery pack, a current of the less than all battery cells, an inlet temperature of coolant provided to the battery pack, and a flow rate or velocity of the coolant; b) dynamically estimating a cell-lumped internal electrical resistance of the less than all battery cells, a cell-lumped conduction resistance between a core and a surface of the less than all battery cells, and a cell-lumped convection resistance between the surface of the less than all battery cells and the coolant, the estimations based upon the received values of step a); c) dynamically estimating a core temperature of the less than all battery cells based upon the received values of step a) and based upon the estimated values of step b); and d) using thermal energy transfer effects between the coolant and the battery cells, thermal energy transfer effects among the battery cells, and the estimated core temperature values of step c), in order to estimate the core temperatures for all of the battery cells in the battery pack, characterized in that step b) comprises dynamically estimating a heat capacity of the core of the less than all battery cells, and a heat capacity of the surface of the less than all battery cells, the estimations based upon the received values of step a), and wherein step c) comprises dynamically estimating a surface temperature of the less than all battery cells, and the method further preferably comprises comparing the received surface temperature values of step a) and the estimated surface temperature values of step c) in order to correct the estimation of the core temperatures of all of the battery cells in the battery pack. a) dynamically receiving a surface temperature of less than all of the battery cells in the battery pack, a current of the less than all battery cells, an inlet temperature of coolant provided to the battery pack, and a flow rate or velocity of the coolant; b) dynamically estimating a cell-lumped internal electrical resistance of the less than all battery cells, a cell-lumped conduction resistance between a core and a surface of the less than all battery cells, and a cell-lumped convection resistance between the surface of the less than all battery cells and the coolant, the estimations based upon the received values of step a); c) dynamically estimating a core temperature of the less than all battery cells based upon the received values of step a) and based upon the estimated values of step b); and d) using thermal energy transfer effects between the coolant and the battery cells, thermal energy transfer effects among the battery cells, and the estimated core temperature values of step c), in order to estimate the core temperatures for all of the battery cells in the battery pack,
A shock-proof mechanical magnetic lock, comprising: an iron plate located on one side of the magnetic lock, a pull plug vertically protruding from the iron plate, a magnet located on the other side of the magnetic lock, a sleeve located inside the magnet and having a top opening for inserting the pull plug, and a stop ring sleeved outside the sleeve; the pull plug has a flange in the end, a mechanism is provided on the sleeve and the stop ring, and the components of the mechanism cooperate with each other to adjust the aperture of internal cavity of the sleeve; the stop ring is fixed to the magnet; the bottom of sleeve is mounted to a substrate by means of a bottom connecting piece, the substrate is positioned below the magnet; the magnet and the stop ring can axially move relative to the sleeve, characterized in that a spring is arranged between the sleeve and the stop ring.
Fastening arrangement for fastening a door hinge to a hollow-chamber profile comprising at least one plastic-profile chamber which comprises a reinforcing profile with at least one reinforcing wall, - having at least one mounting screw for fastening a door hinge part to the hollow-chamber profile, and - having at least one screw-in sleeve for holding the mounting screw, comprising -- an external thread portion for screwing into the hollow-chamber profile, and -- an internal thread portion for screwing in the mounting screw, - wherein the at least one mounting screw can be screwed into the screw-in sleeve, - wherein the mounting screw has a length (L MS) which, in the mounting state, is greater than a distance (A AW) between two reinforcing walls of the reinforcing profile which follow one another in the longitudinal direction of the mounting screw, characterized by - a dowel for stabilizing the mounting screw, wherein the dowel, in the mounted state, is arranged on the following reinforcing wall, and - at least two connection webs for connecting the screw-in sleeve to the dowel, wherein the connection webs are deformable. - having at least one mounting screw for fastening a door hinge part to the hollow-chamber profile, and - having at least one screw-in sleeve for holding the mounting screw, comprising -- an external thread portion for screwing into the hollow-chamber profile, and -- an internal thread portion for screwing in the mounting screw, -- an external thread portion for screwing into the hollow-chamber profile, and -- an internal thread portion for screwing in the mounting screw, - wherein the at least one mounting screw can be screwed into the screw-in sleeve, - wherein the mounting screw has a length (L MS) which, in the mounting state, is greater than a distance (A AW) between two reinforcing walls of the reinforcing profile which follow one another in the longitudinal direction of the mounting screw, - a dowel for stabilizing the mounting screw, wherein the dowel, in the mounted state, is arranged on the following reinforcing wall, and - at least two connection webs for connecting the screw-in sleeve to the dowel, wherein the connection webs are deformable.
An injectable composition for a bone cement material comprising a dry powder component, a liquid component and a modifier to modify a Young's modulus of said bone cement material, wherein said modifier is linoleic acid or a salt thereof and is present in a concentration of 0.1 to 12 v/v of said liquid component.