mhurhangee/ep-ind-claims huggingface dataset:
Voltage tap system for a fuse-holder base, having a specific application for voltage taps of fuse-holder bases with NH-type fuses, where the voltage tap system comprises: - a conductive element connected on one hand to a contact point for tapping the voltage of the fuse-holder base, and on the other hand to an electrical conductor or voltage tap output terminal; - a support in which the conductive element is mounted; and - an auxiliary protection element communicating the contact point for tapping the voltage with the electrical conductor or voltage tap output terminal; characterized in that the conductive element is provided with elastic properties, such that said conductive element is movable and deformable between an initial standby position and a working position in which the conductive element is in direct contact with the blades (2.1) of the fuse, wherein the conductive element is configured to be installed such that it takes up part of the path of the fuses, particularly their blades (2.1), such that when the fuse is inserted in its corresponding location of the fuse-holder base, the blades (2.1) of each fuse run into the conductive element, moving said conductive element and being in direct contact with the blades (2.1) of the fuse; and wherein the conductive element is a metallic element provided with flexible properties which communicates an output connection of the fuse-holder base with the auxiliary protection element. - a conductive element connected on one hand to a contact point for tapping the voltage of the fuse-holder base, and on the other hand to an electrical conductor or voltage tap output terminal; - a support in which the conductive element is mounted; and - an auxiliary protection element communicating the contact point for tapping the voltage with the electrical conductor or voltage tap output terminal; characterized in that the conductive element is provided with elastic properties, such that said conductive element is movable and deformable between an initial standby position and a working position in which the conductive element is in direct contact with the blades (2.1) of the fuse, wherein the conductive element is configured to be installed such that it takes up part of the path of the fuses, particularly their blades (2.1), such that when the fuse is inserted in its corresponding location of the fuse-holder base, the blades (2.1) of each fuse run into the conductive element, moving said conductive element and being in direct contact with the blades (2.1) of the fuse; and wherein the conductive element is a metallic element provided with flexible properties which communicates an output connection of the fuse-holder base with the auxiliary protection element.
A lighting device comprising: a body portion on which a light source is mounted; a terminal unit, provided at each of both ends of the body portion and arranged to receive power for driving the light source; and a sealing unit having an elastic element (33, 33') inside the terminal unit and a frame outside the terminal unit, the elastic element (33, 33') being arranged to contact an inner bottom surface of the terminal unit and to press the frame against the body portion; the inner surface of the frame being arranged to contact an external surface of the terminal unit and a lower surface of the frame being arranged to contact an end surface of the body portion so as to prevent a gap between the body portion and the terminal unit. a body portion on which a light source is mounted; a terminal unit, provided at each of both ends of the body portion and arranged to receive power for driving the light source; and a sealing unit having an elastic element (33, 33') inside the terminal unit and a frame outside the terminal unit, the elastic element (33, 33') being arranged to contact an inner bottom surface of the terminal unit and to press the frame against the body portion; the inner surface of the frame being arranged to contact an external surface of the terminal unit and a lower surface of the frame being arranged to contact an end surface of the body portion so as to prevent a gap between the body portion and the terminal unit.
A cutting roll system for cutting a plurality of elastic strands (96, 216) in a region, the cutting roll system comprising: an anvil roll; and a cutting roll adjacent the anvil roll, the cutting roll adapted to rotate about a roll axis, and wherein the cutting roll comprises a knife block; wherein the knife block comprises at least two rows of knife edges, each row having at least two knife edges arrayed linearly parallel to the roll axis; each row of knife edges circumferentially spaced apart from each other; each knife edge oriented at an angle which does not match with the roll axis direction or a roll circumferential direction, the roll circumferential direction being perpendicular to the roll axis direction; the knife edges in the same knife block staggered with each other such that each elastic strand (96, 216) in the region is cut no more than once. an anvil roll; and a cutting roll adjacent the anvil roll, the cutting roll adapted to rotate about a roll axis, and wherein the cutting roll comprises a knife block; wherein the knife block comprises at least two rows of knife edges, each row having at least two knife edges arrayed linearly parallel to the roll axis; each row of knife edges circumferentially spaced apart from each other; each knife edge oriented at an angle which does not match with the roll axis direction or a roll circumferential direction, the roll circumferential direction being perpendicular to the roll axis direction; the knife edges in the same knife block staggered with each other such that each elastic strand (96, 216) in the region is cut no more than once.
A formulation for a hybrid adhesive composition with a component formed from at least one amino resin which is a condensation product of an aldehyde with a compound from the group of urea, melamine, benzoguanamine, glycoluril, acetoguanamine, biuret, or mixtures thereof, and at least one polyether which comprises at least one ethylene oxide unit or propylene oxide unit and at least one isocyanate reactive group selected from the group of hydroxyl, amino, epoxy, and thiol, and at least one further component comprising a further adhesive, more particular, an adhesive based on isocyanates.
A temperature sensor for measuring the temperature on or in a living body, with a plurality of thermocouples arranged in a distributed manner on a measurement surface of the sensor and electrically connected to create at least one series circuit, wherein thermojunctions (16, 18) formed by the thermocouples in each series circuit are divided into at least two, and preferably into a total of two, spatially separate groups such that in each group, when there is a given change in temperature, the thermojunctions (16, 18) cause a corresponding change in voltage, wherein each thermocouple comprises a first and a second electrical conductor (12, 14) which are connected with one another at a thermojunction, wherein the temperature sensor has a layered structure with a first conductor layer in which a first metallic conductor structure is formed, a second conductor layer in which a second metallic conductor structure is formed, and an electrically insulating layer which is disposed between the two conductor layers, wherein the conductor structures of the two conductor layers consist of different metals, wherein the first conductor of each thermocouple is formed by the first conductor structure, and the second conductor of each thermocouple is formed by the second conductor structure, and the electrically insulating layer comprises recesses through which the first and the second conductors (12, 14) of the thermocouples are connected, wherein the measurement surface of the temperature sensor has a cylindrical shape, and at least a part of the thermocouples are arranged on the circumferential surface of the cylinder.
A pressure sensor comprising: a MEMS resonator formed within a cavity, wherein the cavity comprises a fixed base and a top membrane which deforms in response to the pressure to be sensed, wherein the MEMS resonator has a resonant frequency which is dependent on the incident pressure, wherein the MEMS resonator comprises a resonator beam, characterized in that the MEMS resonator comprises two anchors at each end of the resonator beam, a first anchor attached to the fixed base and a second anchor attached to the top membrane, wherein the first anchor at one end is on an opposite lateral side of the resonator beam to the first anchor at the other end, and the second anchor at one end is on an opposite lateral side of the resonator beam to the second anchor at the other end. a MEMS resonator formed within a cavity, wherein the cavity comprises a fixed base and a top membrane which deforms in response to the pressure to be sensed, wherein the MEMS resonator has a resonant frequency which is dependent on the incident pressure, wherein the MEMS resonator comprises a resonator beam, characterized in that the MEMS resonator comprises two anchors at each end of the resonator beam, a first anchor attached to the fixed base and a second anchor attached to the top membrane, wherein the first anchor at one end is on an opposite lateral side of the resonator beam to the first anchor at the other end, and the second anchor at one end is on an opposite lateral side of the resonator beam to the second anchor at the other end.
A mounting element, for mounting an architectural covering between two opposing mounting surfaces (302, 304), the mounting element comprising: - an elongate mounting member which is elongated along a longitudinal direction, and - an extension mechanism arranged at an end of the elongate mounting member, the extension mechanism being operable between: i) a retracted state, and ii) an extended state, wherein the extension mechanism comprises: - an actuator rotatable about a rotation axis, the rotation axis being substantially perpendicular to the longitudinal direction, and - a conversion mechanism configured to convert a rotation of the actuator into a translatory movement of the rotation axis along the longitudinal direction from the retracted state to the extended state and vice versa, and wherein the extension mechanism is arranged to abut one of the opposing mounting surfaces (302, 304) in the extended state when the mounting element is mounted between the opposing mounting surfaces (302, 304), the mounting element being characterized in that the conversion mechanism further comprises a connection member operably connected: i) to the elongate mounting member, and ii) to the actuator. - an elongate mounting member which is elongated along a longitudinal direction, and - an extension mechanism arranged at an end of the elongate mounting member, the extension mechanism being operable between: i) a retracted state, and ii) an extended state, wherein the extension mechanism comprises: - an actuator rotatable about a rotation axis, the rotation axis being substantially perpendicular to the longitudinal direction, and - an actuator rotatable about a rotation axis, the rotation axis being substantially perpendicular to the longitudinal direction, and - a conversion mechanism configured to convert a rotation of the actuator into a translatory movement of the rotation axis along the longitudinal direction from the retracted state to the extended state and vice versa, and i) to the elongate mounting member, and ii) to the actuator.
A pressure support system, comprising: a pressure generating system adapted to produce a flow of breathing gas; a patient circuit (56, 58) operatively coupled to the pressure generating system to deliver the flow of breathing gas to an airway of a patient; and a controller operatively coupled to the pressure generating system, the controller being adapted to determine a measure of an inspiratory time of the patient while using the pressure support system and to control the pressure generating system to deliver the flow of breathing gas to the patient at an inspiratory positive airway pressure (IPAP) level during at least a portion of an inspiratory phase of the patient and deliver the flow of breathing gas to the patient at an expiratory positive airway pressure (EPAP) level that is less than the IPAP level during at least a portion of an expiratory phase of the patient, characterized in that the measure of the inspiratory time is an inspiratory time of the patient within a particular respiratory cycle or an average inspiratory time of the patient determined over (a) a predetermined number of respiratory cycles, or (b) a predetermined time period, and wherein the controller is further adapted to control the pressure generating system to automatically set a rise time of a transition from the EPAP level to the IPAP level based on the measure of the inspiratory time. a pressure generating system adapted to produce a flow of breathing gas; a patient circuit (56, 58) operatively coupled to the pressure generating system to deliver the flow of breathing gas to an airway of a patient; and a controller operatively coupled to the pressure generating system, the controller being adapted to determine a measure of an inspiratory time of the patient while using the pressure support system and to control the pressure generating system to deliver the flow of breathing gas to the patient at an inspiratory positive airway pressure (IPAP) level during at least a portion of an inspiratory phase of the patient and deliver the flow of breathing gas to the patient at an expiratory positive airway pressure (EPAP) level that is less than the IPAP level during at least a portion of an expiratory phase of the patient, characterized in that the measure of the inspiratory time is an inspiratory time of the patient within a particular respiratory cycle or an average inspiratory time of the patient determined over (a) a predetermined number of respiratory cycles, or (b) a predetermined time period, and wherein the controller is further adapted to control the pressure generating system to automatically set a rise time of a transition from the EPAP level to the IPAP level based on the measure of the inspiratory time.
Cooktop, comprising: - a number of inductors, - a number of electric assembly groups, wherein a respective electric assembly group is assigned to each inductor, and - a support system for holding the assembly groups, characterized in that the support system includes at least one first longitudinal rail and one second longitudinal rail, disposed in parallel to each other, and along said rails at least one assembly group is continuously shiftable and fixable. - a number of inductors, - a number of electric assembly groups, wherein a respective electric assembly group is assigned to each inductor, and - a support system for holding the assembly groups,
A presence detection system comprising: an IR sensor configured to scan an area and capture a plurality of IR frames (F(w,h)); each frame comprising a plurality of pixels; and a processor; characterized in that the processor is configured to: calculate a plurality of average IR frames (F φ,t) over various time intervals by averaging the respective IR frame pixels over the respective time interval; calculate a plurality of delta frames (F Δ(m,n)), wherein each delta frame (F Δ(m,n)) is the difference between the current average IR frame (F ave,m) and the average IR frame (F ave,n) calculated over the previous of said time intervals; calculate a mask frame (F MASK), wherein the mask frame (F MASK) is a summation of the delta frames (F Δ(m,n)); and determine whether a stationary presence exists based on the value of the mask frame (F MASK). an IR sensor configured to scan an area and capture a plurality of IR frames (F(w,h)); each frame comprising a plurality of pixels; and a processor; characterized in that the processor is configured to: calculate a plurality of average IR frames (F φ,t) over various time intervals by averaging the respective IR frame pixels over the respective time interval; calculate a plurality of delta frames (F Δ(m,n)), wherein each delta frame (F Δ(m,n)) is the difference between the current average IR frame (F ave,m) and the average IR frame (F ave,n) calculated over the previous of said time intervals; calculate a mask frame (F MASK), wherein the mask frame (F MASK) is a summation of the delta frames (F Δ(m,n)); and determine whether a stationary presence exists based on the value of the mask frame (F MASK). calculate a plurality of average IR frames (F φ,t) over various time intervals by averaging the respective IR frame pixels over the respective time interval; calculate a plurality of delta frames (F Δ(m,n)), wherein each delta frame (F Δ(m,n)) is the difference between the current average IR frame (F ave,m) and the average IR frame (F ave,n) calculated over the previous of said time intervals; calculate a mask frame (F MASK), wherein the mask frame (F MASK) is a summation of the delta frames (F Δ(m,n)); and determine whether a stationary presence exists based on the value of the mask frame (F MASK).
A quadrifilar helix antenna system having a designed operational wavelength, comprising: a finite ground plane; characterised by a pair of half-turn bifilar helical elements on a core extending upwardly from the finite ground plane; and an array of monopole elements mounted on the ground plane so as to be directly connected thereto and symmetrically disposed around the lower portion of the pair of bifilar helical elements in the near field so as to load the lower portion and thereby raise the phase center of the antenna to improve the circularly polarized far-field radiation at low elevation angles. a finite ground plane; characterised by a pair of half-turn bifilar helical elements on a core extending upwardly from the finite ground plane; and an array of monopole elements mounted on the ground plane so as to be directly connected thereto and symmetrically disposed around the lower portion of the pair of bifilar helical elements in the near field so as to load the lower portion and thereby raise the phase center of the antenna to improve the circularly polarized far-field radiation at low elevation angles.
A fluid valve for a sample separation device, wherein the fluid valve comprises: a first valve component; a second valve component; wherein the first valve component and the second valve component adjoin each other, are rotatable or longitudinally displaceable relative to each other, and are configured such that in at least one switching state at least one switchable fluid channel is formed between them; wherein the at least one fluid channel is formed of at least one groove in the first valve component and at least two fluid ports at the second valve component, and wherein in different switching states of the fluid valve the fluid ports can be brought into different fluidic coupling states with respect to the at least one groove; wherein at least a part of a surface of at least one of the first valve component and the second valve component is provided with a gold-containing and/or platinum-containing coating; wherein the fluid valve is a shear valve, wherein the first valve component comprises a contact surface as part of its surface and the second valve component comprises a contact surface as part of its surface, wherein the first valve component and the second valve component adjoin each other at the contact surfaces, and wherein at least a part of the contact surface of at least one of the first valve component and the second valve component is provided with the gold-containing and/or platinum-containing coating, so that a lubrication between the first valve component and the second valve component, a balance of the valve components and a low-wear operation are promoted. a first valve component; a second valve component; wherein the first valve component and the second valve component adjoin each other, are rotatable or longitudinally displaceable relative to each other, and are configured such that in at least one switching state at least one switchable fluid channel is formed between them; wherein the at least one fluid channel is formed of at least one groove in the first valve component and at least two fluid ports at the second valve component, and wherein in different switching states of the fluid valve the fluid ports can be brought into different fluidic coupling states with respect to the at least one groove; wherein at least a part of a surface of at least one of the first valve component and the second valve component is provided with a gold-containing and/or platinum-containing coating; wherein the fluid valve is a shear valve, wherein the first valve component comprises a contact surface as part of its surface and the second valve component comprises a contact surface as part of its surface, wherein the first valve component and the second valve component adjoin each other at the contact surfaces, and wherein at least a part of the contact surface of at least one of the first valve component and the second valve component is provided with the gold-containing and/or platinum-containing coating, so that a lubrication between the first valve component and the second valve component, a balance of the valve components and a low-wear operation are promoted.
Method for obtaining at least one key for encrypting at least one piece of data transmitted from a client to a server, characterised in that it comprises: - a step of determining a number R of registers available within said client to carry out a plurality of computations of encryption keys; - a step of determining a maximum number N of iterations needed to obtain at least one encryption key from said server; - a step of obtaining a structure of data pieces representative of a key computation state achieved within said R available registers; - a step of computing said at least one encryption key as a function of: - said number of R available registers of said client, - in performing at most N calls to a pseudo-random function F and - of said structure of data pieces; so that said at least one encryption key can be obtained from a combination of at most T = C N R+N -1 encryption keys on a basis of a secret preliminarily shared between said server and said client. - a step of determining a number R of registers available within said client to carry out a plurality of computations of encryption keys; - a step of determining a maximum number N of iterations needed to obtain at least one encryption key from said server; - a step of obtaining a structure of data pieces representative of a key computation state achieved within said R available registers; - a step of computing said at least one encryption key as a function of: - said number of R available registers of said client, - in performing at most N calls to a pseudo-random function F and - of said structure of data pieces; - said number of R available registers of said client, - in performing at most N calls to a pseudo-random function F and - of said structure of data pieces;