mhurhangee/ep-ind-claims huggingface dataset:
A receiving device for receiving a magnetic field and for producing electric energy by magnetic induction, wherein - the receiving device comprises coils (33, 35, 37) of at least one electric line and wherein the magnetic field induces an electric voltage in the coils (33, 35, 37) during operation, - the receiving device and the coils (33, 35, 37) are adapted to receive the magnetic field from a receiving side of the receiving device, - the receiving device comprises a field shaping arrangement formed by magnetizable material adapted to shape magnetic field lines of the magnetic field, - the field shaping arrangement is placed behind the coils (33, 35, 37), if viewed from the receiving side of the receiving device, - a depth, to be measured in the direction from the receiving side of the receiving device to the side of the receiving device opposite to the receiving side, of the field shaping arrangement varies, characterized in that the depth of the magnetizable material is larger at locations, if viewed from the receiving side, behind regions of the coils where the electromagnetic field produced by electric currents through the coils (33, 35, 37) is larger due to an overlap of different coils in the respective regions compared to locations behind regions of the coils where there is no overlap of coils. - the receiving device comprises coils (33, 35, 37) of at least one electric line and wherein the magnetic field induces an electric voltage in the coils (33, 35, 37) during operation, - the receiving device and the coils (33, 35, 37) are adapted to receive the magnetic field from a receiving side of the receiving device, - the receiving device comprises a field shaping arrangement formed by magnetizable material adapted to shape magnetic field lines of the magnetic field, - the field shaping arrangement is placed behind the coils (33, 35, 37), if viewed from the receiving side of the receiving device, - a depth, to be measured in the direction from the receiving side of the receiving device to the side of the receiving device opposite to the receiving side, of the field shaping arrangement varies,
Apparatus for monitoring doors, windows or the like for the approach of a person and/or obstacles in the opening region, having a plurality of sensors, associated energy supply lines (6, 7) and at least one signal line for forwarding a sensor signal, wherein the sensors are in the form of so-called time-of-flight sensors, characterized in that the sensors are successively arranged in a sensor strip and the sensor strip is composed of a flexible material, wherein at least two of the sensors have a mutually different function, wherein at least one sensor is designed to monitor for obstacles, and wherein at least one sensor is designed to monitor for the approach of a person.
Method for the preparation of bioresorbable non-lamellar microparticles to which protein substances are bonded, characterised in that it comprises the steps of: i. preparing said microparticles by solvent displacement starting from at least one bioresorbable polymer selected from the group consisting of poly(α-hydroxy acids), poly(hydroxybutyric acids), polycaprolactones, polyorthoesters and polyanhydrides without stabilising agent and without surfactant, and ii. bonding said protein substances to the microparticles obtained in step (i) without surfactant. i. preparing said microparticles by solvent displacement starting from at least one bioresorbable polymer selected from the group consisting of poly(α-hydroxy acids), poly(hydroxybutyric acids), polycaprolactones, polyorthoesters and polyanhydrides without stabilising agent and without surfactant, and ii. bonding said protein substances to the microparticles obtained in step (i) without surfactant.
Exercise equipment comprising: a grippable handle at which said exercise equipment can be lifted by a user, a docking assembly connected to the grippable handle, the docking assembly defining a slot in which at least one weight plate can be removably mounted and having at least one locking member to lock the at least one weight plate to the docking assembly once received at the slot, said slot being defined by opposed arms (6,7) at opposed sides of the slot, and characterised in that said at least one locking member is able to move relative to said opposed arms (6,7) between a first locking position, toward which it is biased, and a second unlocked position, and wherein as the weight plate is received by the slot it pushes against the bias of said locking member to move the locking member to the unlocked position momentarily until the weight plate is slid deeper into the slot and past the locking member, where the locking member returns under bias to its locking position. a grippable handle at which said exercise equipment can be lifted by a user, a docking assembly connected to the grippable handle, the docking assembly defining a slot in which at least one weight plate can be removably mounted and having at least one locking member to lock the at least one weight plate to the docking assembly once received at the slot, said slot being defined by opposed arms (6,7) at opposed sides of the slot, and characterised in that said at least one locking member is able to move relative to said opposed arms (6,7) between a first locking position, toward which it is biased, and a second unlocked position, and wherein as the weight plate is received by the slot it pushes against the bias of said locking member to move the locking member to the unlocked position momentarily until the weight plate is slid deeper into the slot and past the locking member, where the locking member returns under bias to its locking position.
A radio frequency passband filter (800, 1200) comprising a network of half-wavelength planar resonators (860, 1250), wherein at least one of the half-wavelength planar resonators includes a resistor shunted to ground to flatten response in the passband, wherein different ones of the plurality of the half-wavelength planar resonators (860, 1250) have resistors with different resistance values.
A device for accurate wind measurement, the device comprising: a bench carrying a camera having camera optics; a moving object (8a,8b) connected to said camera by a string; and a digital signal processor or a computer; characterized by: said camera being generally directed downward and taking images of said object's movement while influenced by gravity and aerodynamic forces; said camera being configured to stream the images to a digital signal processor or computer, and said digital signal processor or computer being adapted to decode the images and compute the object location and spatial angles. a bench carrying a camera having camera optics; a moving object (8a,8b) connected to said camera by a string; and a digital signal processor or a computer; characterized by: said camera being generally directed downward and taking images of said object's movement while influenced by gravity and aerodynamic forces; said camera being configured to stream the images to a digital signal processor or computer, and said digital signal processor or computer being adapted to decode the images and compute the object location and spatial angles. said camera being generally directed downward and taking images of said object's movement while influenced by gravity and aerodynamic forces; said camera being configured to stream the images to a digital signal processor or computer, and said digital signal processor or computer being adapted to decode the images and compute the object location and spatial angles.
System for dispensing a mixture of a first product and a second product, said system comprising a pump which presents a pump body that is intended to be connected to a bottle which contains the first product, said pump comprising a piston secured to a push button so as to be actuated in translatory motion in said body, said piston defining within said body a dosing chamber having a feeding inlet formed on a lower part of said body, said pump further comprising a lower check valve that is slidingly mounted in the dosing chamber between an upper opening position and a lower closing position of the feeding inlet, said system further comprising an additional container attached to the body which is intended to contain the second product, said system being characterized in that it comprises an organ for opening said additional container being coupled with said lower check valve in order to, at least upon the first actuation of the pump, open said additional container by the movement of the lower check valve towards its closing position, said opening being configured for the mixing of said second product with said first product into said bottle.
A particle size measuring device adapted to measure the particle size of particles that perform Brownian motion in a dispersion medium, the device comprising: a transparent column with a longitudinal axis and adapted to accomodate a dispersion medium therein; a laser light irradiating unit adapted to irradiate the dispersion medium in the column with laser light; an imaging unit which includes a camera adapted to image the dispersion medium in the column; an image analyzing unit adapted to acquire a displacement of corresponding particles from at least a plurality of images captured at a predetermined time interval Δt and further comprising a calculating unit adapted to calculate the particle size based on the fact that a root mean square value of the displacement is proportional to k B T/3πηd where k B represents a Boltzmann constant, T represents an absolute temperature, η represents a viscosity coefficient of the dispersion medium, and d represents the particle size; and wherein the dispersion medium is allowed to flow along the longitudinal axis line of the column, an optical axis of the camera is disposed toward a direction perpendicular to the longitudinal axis line, and characterized in that the image analyzing unit further acquires the displacement by subtracting a moving component due to a flow velocity of the dispersion medium from a moving component, in a direction along the longitudinal axis line in the images. a transparent column with a longitudinal axis and adapted to accomodate a dispersion medium therein; a laser light irradiating unit adapted to irradiate the dispersion medium in the column with laser light; an imaging unit which includes a camera adapted to image the dispersion medium in the column; an image analyzing unit adapted to acquire a displacement of corresponding particles from at least a plurality of images captured at a predetermined time interval Δt and further comprising a calculating unit adapted to calculate the particle size based on the fact that a root mean square value of the displacement is proportional to k B T/3πηd where k B represents a Boltzmann constant, T represents an absolute temperature, η represents a viscosity coefficient of the dispersion medium, and d represents the particle size; and wherein the dispersion medium is allowed to flow along the longitudinal axis line of the column, an optical axis of the camera is disposed toward a direction perpendicular to the longitudinal axis line, and characterized in that the image analyzing unit further acquires the displacement by subtracting a moving component due to a flow velocity of the dispersion medium from a moving component, in a direction along the longitudinal axis line in the images.
A reciprocating refrigeration compressor, comprising: - a crankcase carrying a cylinder and a bearing hub which lodges a crankshaft provided with an eccentric; - a valve plate closing one end of the cylinder; - a piston reciprocating in the interior of the cylinder and driven by a connecting rod coupled to the eccentric of the crankshaft; - an electric motor having a stator affixed to the crankcase and provided with a plurality of winding grooves intercalated with teeth, each tooth carrying a respective shoe, and a rotor affixed to the crankshaft and carrying magnet segments, the reciprocating refrigeration compressor characterized in that, in the condition of upper dead point of the piston, at least one magnet segment of the rotor has its symmetry radial axis coinciding with the symmetry radial axis of a corresponding winding groove, said symmetry radial axes being positioned between the two stator teeth adjacent to said winding groove, the stator, the rotor and the crankshaft presenting, in relation to one another, a relative positioning which produces, upon the stop of the electric motor and with the crankshaft and the rotor assembly being in the upper dead point condition of the piston, a cogging torque capable of taking the piston away from the upper dead point. - a crankcase carrying a cylinder and a bearing hub which lodges a crankshaft provided with an eccentric; - a valve plate closing one end of the cylinder; - a piston reciprocating in the interior of the cylinder and driven by a connecting rod coupled to the eccentric of the crankshaft; - an electric motor having a stator affixed to the crankcase and provided with a plurality of winding grooves intercalated with teeth, each tooth carrying a respective shoe, and a rotor affixed to the crankshaft and carrying magnet segments,
Method for creating a decoy of an operation of at least one module located in at least one first zone of a semiconductor substrate of an integrated electronic circuit, comprising arranging at least one first antenna above at least one second zone of the integrated circuit, that is different from said at least one first zone, generating at least one decoy electrical signal on the basis of at least one first electrical signal that is characteristic of an operation of said at least one module and of at least one pseudo-random parameter, the first electrical signal being generated by said at least one module and delivered over an output of said at least one module, and circulating said at least one decoy electrical signal in said at least one first antenna so as to generate at least one decoy electromagnetic radiation, said module being capable of generating and of delivering, over an output of said module, said at least one first electrical signal.
A loading device for a machine tool, having a transfer area configured for transferring and/or supporting a workpiece (300, 310) during machining by the machine tool and at least one transport area (120, 120a, 120b, 120c) configured for transporting a workpiece (300, 310) to the transfer area, wherein the at least one transport area has a plurality of driven rollers for supporting and for translational and rotational movement of one or a plurality of workpieces, and wherein the transfer area has a plurality of driven rollers and is characterized in that it has at least one positioning element for positioning a workpiece (300, 310), wherein the at least one positioning element is movable in the direction of a machining area of the machine tool.
A material comprising a substrate coated with a functional coating and with an organic protective layer deposited on at least a part of the functional coating, the organic protective layer is obtained by crosslinking a polymerizable composition comprising: a) (meth)acrylate compounds not comprising a polyorganosiloxane group and c) optionally a polymerization initiator, characterized in that the (meth)acrylate compounds a) comprise high functionality (meth)acrylate compounds: - having at least 4 (meth)acrylate functional groups and representing, by weight with respect to the total weight of the organic protective layer, at least 65% or - having at least 5 (meth)acrylate functional groups and representing, by weight with respect to the total weight of the organic protective layer, at least 50%. a) (meth)acrylate compounds not comprising a polyorganosiloxane group and c) optionally a polymerization initiator, - having at least 4 (meth)acrylate functional groups and representing, by weight with respect to the total weight of the organic protective layer, at least 65% or - having at least 5 (meth)acrylate functional groups and representing, by weight with respect to the total weight of the organic protective layer, at least 50%.
A lamp block (1, 201, 401, 601) for pumping a lamp-pumped laser machine, comprising a lamp which comprises a glass tube (2, 202, 402, 602) having an internal final end and an external final end, wherein said internal final end (3, 203, 403, 603) builds the negative terminal of said glass tube and ends with an electrode (5, 205, 405, 605) which is configured to be inserted and to engage with a blade connector on a housing (431, 631) of the laser apparatus machine and said external final end (4, 204, 404, 604) builds the positive terminal end and comprises another electrode to which a cable (6, 206, 406, 606) is connected, at least a portion of said cable being inserted in a key (9, 209, 409, 609) which comprises a hollow cylinder, the key being configured to be screwed on an internal thread present on said housing (431, 631) to achieve complete engagement of the electrode (5, 205, 405, 605) on the blade connector.
Rectangular luminaire housing with two opposite short (3, 3') and two opposite long rectangle sides, comprising a casing and a cover which covers the casing, said cover having a light outlet opening, wherein cooperating fastening means are provided at the corners of the casing and of the cover, characterised in that hook-shaped retaining elements which engage with one another are provided on the long rectangle sides of both the cover and the casing between the corners.
An angular battery comprising: an electrode body in which a positive electrode and a negative electrode are laminated in a state insulated from each other by a separator interposed therebetween; and a hexahedral battery case that accommodates the electrode body, wherein the battery case is configured of a substantially U-shaped case body that has a rectangular bottom surface and a pair of long side surfaces provided integrally with the bottom surface and having, as one side thereof, a long side of the rectangular bottom surface and facing each other; and a substantially U-shaped lid body having an upper lid facing the bottom surface and a pair of short side surfaces provided integrally with the upper lid and interposed between the pair of long side surfaces and facing each other; the electrode body is attached to the lid body; the case body and the lid body are joined to each other to form the battery case in which the electrode body is accommodated. an electrode body in which a positive electrode and a negative electrode are laminated in a state insulated from each other by a separator interposed therebetween; and a hexahedral battery case that accommodates the electrode body, wherein the battery case is configured of a substantially U-shaped case body that has a rectangular bottom surface and a pair of long side surfaces provided integrally with the bottom surface and having, as one side thereof, a long side of the rectangular bottom surface and facing each other; and a substantially U-shaped lid body having an upper lid facing the bottom surface and a pair of short side surfaces provided integrally with the upper lid and interposed between the pair of long side surfaces and facing each other; the electrode body is attached to the lid body; the case body and the lid body are joined to each other to form the battery case in which the electrode body is accommodated.
A method for controlling a dental instrument being an ultrasonic dental scaler, said method comprising: providing a foot pedal and a control circuit for communicating control signals from the foot pedal to the dental instrument, the foot pedal responsive to commands communicated by a user applying a force to the foot pedal, the foot pedal having at least two switches; selecting between a first operating mode for ultrasonic operation of the dental instrument, and a second operating mode for ultrasonic operation of the dental instrument using the foot pedal; wherein: selecting the first operating mode comprises applying a sustained force to the foot pedal to a first level to actuate at least one of the switches on the foot pedal; the foot pedal configured to operate the dental instrument in the first operating mode in response to the sustained force being applied to the foot pedal; and selecting the second operating mode comprises applying a momentary force to the foot pedal to transition from the first operating mode; transitioning from the second operating mode to the first operating mode by applying a momentary force to the foot pedal; and transitioning from the first operating mode to the second operating mode by applying a momentary force to the foot pedal. providing a foot pedal and a control circuit for communicating control signals from the foot pedal to the dental instrument, the foot pedal responsive to commands communicated by a user applying a force to the foot pedal, the foot pedal having at least two switches; selecting between a first operating mode for ultrasonic operation of the dental instrument, and a second operating mode for ultrasonic operation of the dental instrument using the foot pedal; wherein: selecting the first operating mode comprises applying a sustained force to the foot pedal to a first level to actuate at least one of the switches on the foot pedal; the foot pedal configured to operate the dental instrument in the first operating mode in response to the sustained force being applied to the foot pedal; and selecting the second operating mode comprises applying a momentary force to the foot pedal to transition from the first operating mode; transitioning from the second operating mode to the first operating mode by applying a momentary force to the foot pedal; and transitioning from the first operating mode to the second operating mode by applying a momentary force to the foot pedal. selecting the first operating mode comprises applying a sustained force to the foot pedal to a first level to actuate at least one of the switches on the foot pedal; the foot pedal configured to operate the dental instrument in the first operating mode in response to the sustained force being applied to the foot pedal; and selecting the second operating mode comprises applying a momentary force to the foot pedal to transition from the first operating mode; transitioning from the second operating mode to the first operating mode by applying a momentary force to the foot pedal; and transitioning from the first operating mode to the second operating mode by applying a momentary force to the foot pedal.
An isolated monoclonal antibody (mAb) or antigen binding fragment thereof that: (a) binds an epitope within residues 160-176 of the G protein of respiratory syncytial virus strain A2, (b) has reactivity with G protein of both group A and group B strains of RSV, (c) has an EC 50 of less than 500 ng/ml in a plaque reduction neutralization test (PRNT), and (d) the mAb or fragment comprises the VH sequence EEQLVESGGGLVQPGRSLRLSCVGSGLRFEEHAMHWVRQAPGRGLEWVS GISWNSGSVGYADSVKGRFTTSRDNAKDILFLEMNTLRSEDTALYFCAIMVATTK NDFHYYKDVWGKGTTVTVSS and the VL sequence QIVLTQSPATLSLSPGERATLSCKASQSVSNHLAWYQQKPGQAPRLLIYESTNRATGIP PRFSGSGSGTDFTLTISSLEPEDFAVYYCQQRNNWYTFGQGTKLEIK (a) binds an epitope within residues 160-176 of the G protein of respiratory syncytial virus strain A2, (b) has reactivity with G protein of both group A and group B strains of RSV, (c) has an EC 50 of less than 500 ng/ml in a plaque reduction neutralization test (PRNT), and (d) the mAb or fragment comprises the VH sequence EEQLVESGGGLVQPGRSLRLSCVGSGLRFEEHAMHWVRQAPGRGLEWVS GISWNSGSVGYADSVKGRFTTSRDNAKDILFLEMNTLRSEDTALYFCAIMVATTK NDFHYYKDVWGKGTTVTVSS and the VL sequence QIVLTQSPATLSLSPGERATLSCKASQSVSNHLAWYQQKPGQAPRLLIYESTNRATGIP PRFSGSGSGTDFTLTISSLEPEDFAVYYCQQRNNWYTFGQGTKLEIK