mhurhangee/patent-ind-claim-en huggingface dataset:
A method for sharing bandwidth by a control unit in communication between a plurality of mobile clients and a plurality of access points, wherein the plurality of mobile clients is arranged in a moving vehicle travelling a predetermined route, the control unit being a separate unit or the functionalities of the control unit being implemented in one or more mobile clients or one or more access points, the method comprising: receiving client information regarding the plurality of mobile clients, said client information comprising data about available access point connections of each mobile client; characterized by receiving information from the access points that each of the plurality of mobile clients has been connected to an access point, wherein the number of access points equals or exceeds the number of mobile clients; determining a first access point having a subgroup of multiple mobile clients connected to it; and determining , on the basis of the client information, possible second access points for each mobile client in said subgroup; assigning , for a first mobile client residing outermost in said subgroup, the outermost possible second access point in the direction towards the first mobile client, assigning , for any subsequent mobile client in said subgroup, the outermost possible, non-assigned second access point in the same direction as for the first mobile client; and signalling, to any mobile client requiring re-location to another access point, the identification of the assigned access point. receiving client information regarding the plurality of mobile clients, said client information comprising data about available access point connections of each mobile client; characterized by receiving information from the access points that each of the plurality of mobile clients has been connected to an access point, wherein the number of access points equals or exceeds the number of mobile clients; determining a first access point having a subgroup of multiple mobile clients connected to it; and determining , on the basis of the client information, possible second access points for each mobile client in said subgroup; assigning , for a first mobile client residing outermost in said subgroup, the outermost possible second access point in the direction towards the first mobile client, assigning , for any subsequent mobile client in said subgroup, the outermost possible, non-assigned second access point in the same direction as for the first mobile client; and signalling, to any mobile client requiring re-location to another access point, the identification of the assigned access point.
A fuel pump assembly comprising a spring seat , the fuel pump assembly further including a pump housing , a pump head , a tappet , a plunger , and a return spring , the pump housing including a bore for receiving the tappet , the pump head including a plunger bore , the plunger being driven in a reciprocal manner within the plunger bore by a drive arrangement to pressurise fuel disposed within a pumping chamber defined by the pump head and the plunger , the tappet including at least one vent for allowing the passage of fuel from the upper cam box to a lower cam box .formed circumferentially around a side wall portion and/or a base portion of the tappet and being operably disposed between the drive arrangement and the plunger , the spring seat is coupled with the plunger and disposed within the side wall portion and the base portion defining an upper cam box defined within the tappet , the return spring disposed between the spring seat and the pump head to bias the plunger against the tappet at an interface , the spring seat characterised by the spring seat comprising a deflector surface including an annularly tapered portion which is used to direct high temperature fuel outwardly through plunger tappet vents and the lower cam box during the pumping stroke and, wherein the spring seat is coupled with the plunger at a distance from the interface between the plunger and the tappet along a longitudinal axis of the plunger , the distance is between 3.0mm to 4.0mm.
A magnetic resonance system for quantifying an amount of fat in the liver of a patient , comprising: a portable probe unit comprising a housing portion contacting the patient's skin over the liver region to be examined, the probe unit including: a magnet mounted in the housing portion , which magnet generates a static magnetic B 0 field outside of the probe unit and inside the liver region ; and an RF coil disposed in the probe unit adjacent to the liver region ; a data acquisition apparatus connected to the RF coil , the data acquisition apparatus including: an input-output module which receives a RF resonance signal from the RF coil and converts it to a digital signal; and at least one processor which is programmed to: transmit a RF signal to the liver region to form a B1 excitation field; apply applying a series of 180 0 inversion pulses to generate magnetic resonance echoes; receive the RF resonance signals from the echoes and converting them to digital data; and analyze the digital data from the input-output unit, wherein the processor is further programmed to determine a T 2 relaxation distribution, separate a free water peak , a bound water peak , and a lipid peak , and normalize an area under the respective peaks to calculate a fat-to-water ratio. a portable probe unit comprising a housing portion contacting the patient's skin over the liver region to be examined, the probe unit including: a magnet mounted in the housing portion , which magnet generates a static magnetic B 0 field outside of the probe unit and inside the liver region ; and an RF coil disposed in the probe unit adjacent to the liver region ; a magnet mounted in the housing portion , which magnet generates a static magnetic B 0 field outside of the probe unit and inside the liver region ; and an RF coil disposed in the probe unit adjacent to the liver region ; a data acquisition apparatus connected to the RF coil , the data acquisition apparatus including: an input-output module which receives a RF resonance signal from the RF coil and converts it to a digital signal; and at least one processor which is programmed to: transmit an input-output module which receives a RF resonance signal from the RF coil and converts it to a digital signal; and at least one processor which is programmed to: transmit transmit a RF signal to the liver region to form a B1 excitation field; apply applying a series of 180 0 inversion pulses to generate magnetic resonance echoes; receive the RF resonance signals from the echoes and converting them to digital data; and analyze the digital data from the input-output unit, wherein the processor is further programmed to determine a T 2 relaxation distribution, separate a free water peak , a bound water peak , and a lipid peak , and normalize an area under the respective peaks to calculate a fat-to-water ratio.
A mounting assembly comprising an electronic component mounted on an upper surface of a circuit board , the electronic component comprising at least one electrical connector and a thermal pad , wherein - the electrical connector is electrically connected to a contact pad of the circuit board , - the circuit board is mounted on a heatsink , the heatsink having a heatsink extension which extends through the circuit board spatially separated therefrom, - the circuit board is provided with an opening beneath the thermal pad of the component and comprises a land for the thermal pad extending laterally around the opening , - a thermal interface material is provided, characterized in that - the heatsink extension is dimensioned and positioned to establish a lateral gap between the surface of the heatsink material and the PCB material, the gap being partly or completely filled with the thermal interface material , the thermal pad is provided on a lower surface of the component and is soldered to the land for the thermal pad , and - the thermal interface material is electrically insulating and arranged between an upper surface of the heat sink extension and the thermal pad and is provided to ensure an electrically insulating thermal connection between the thermal pad and the heatsink extension . - the electrical connector is electrically connected to a contact pad of the circuit board , - the circuit board is mounted on a heatsink , the heatsink having a heatsink extension which extends through the circuit board spatially separated therefrom, - the circuit board is provided with an opening beneath the thermal pad of the component and comprises a land for the thermal pad extending laterally around the opening , - a thermal interface material is provided, characterized in that - the heatsink extension is dimensioned and positioned to establish a lateral gap between the surface of the heatsink material and the PCB material, the gap being partly or completely filled with the thermal interface material , the thermal pad is provided on a lower surface of the component and is soldered to the land for the thermal pad , and - the thermal interface material is electrically insulating and arranged between an upper surface of the heat sink extension and the thermal pad and is provided to ensure an electrically insulating thermal connection between the thermal pad and the heatsink extension .
Portable massage appliance having - a shape-modifiable contact segment for placing onto a body region that is to be massaged; and - one or more electrically drivable massage elements , which are arranged inside a main body and are designed to cause a modification of the shape of the contact segment during operation; characterized in that the contact segment is connected to the main body so as to be releasable in a non-destructive and reversible manner, and wherein the contact segment is connected to the main body by means of one or more zip fasteners . - a shape-modifiable contact segment for placing onto a body region that is to be massaged; and - one or more electrically drivable massage elements , which are arranged inside a main body and are designed to cause a modification of the shape of the contact segment during operation; characterized in that the contact segment is connected to the main body so as to be releasable in a non-destructive and reversible manner, and wherein the contact segment is connected to the main body by means of one or more zip fasteners .
A process for polymerising propylene in the presence of a polymerisation catalyst comprising a solid catalyst component, an organoaluminium compound and an external electron donor, the process comprising the steps of (i) contacting propylene and hydrogen with the polymerisation catalyst in polymerisation conditions in a polymerisation reactor to produce a polymer of propylene; (ii) recovering the polymer of propylene from the polymerisation reactor; wherein the polymer of propylene has MFR 2 of from more than 100 to 10000 g/10 min; and the solid catalyst component comprises titanium, magnesium, halogen and an internal electron donor, characterised in that the internal electron donor is a compound according to formula (I): with R 1 and R 2 being the same or different and being a linear or branched C 1 -C 12 -alkyl group, and with R being H or a linear, branched or cyclic C 1 to C 12 -alkyl, whereby it is preferred that R is not H; and the external electron donor is a silane compound having the formula Si(OR 11 ) n R 10 4-n , wherein each R 11 is independently a linear or branched C 1 -C 4 alkyl, preferably methyl or ethyl; wherein R 10 is NR 12 R 13 , and R 12 and R 13 are independently selected from the group consisting of methyl, ethyl, n-propyl, n-butyl, octyl, decanyl, iso-propyl, iso-butyl, iso-pentyl, tert-butyl, tert-amyl, cyclohexyl, methylcyclopentyl and cycloheptyl; and wherein n is 3. with R 1 and R 2 being the same or different and being a linear or branched C 1 -C 12 -alkyl group, and with R being H or a linear, branched or cyclic C 1 to C 12 -alkyl, whereby it is preferred that R is not H; and the external electron donor is a silane compound having the formula Si(OR 11 ) n R 10 4-n , wherein each R 11 is independently a linear or branched C 1 -C 4 alkyl, preferably methyl or ethyl; wherein R 10 is NR 12 R 13 , and R 12 and R 13 are independently selected from the group consisting of methyl, ethyl, n-propyl, n-butyl, octyl, decanyl, iso-propyl, iso-butyl, iso-pentyl, tert-butyl, tert-amyl, cyclohexyl, methylcyclopentyl and cycloheptyl; and wherein n is 3.
Light module , notably a lighting and/or signalling module, for a motor vehicle, comprising: - at least one light source ; - a circuit board intended to supply electrical power to the light source or sources ; - a heat sink supporting the circuit board and capable of dissipating the heat produced by the light source or sources ; - a reflecting surface capable of reflecting the rays from the light source or sources in order to form a light beam on an optical axis of the module; - a support for the reflecting surface on the heat sink , the heat sink comprising, with respect to the optical axis of the module, a rear portion supporting the circuit board and a front portion lower down than the rear portion , the front portion supporting a lens configured to deflect the rays emitted by the light source or sources , the support comprising an opening for holding the lens on the support, characterized in that the support comprises positioning means (4 4 ) cooperating with the circuit board to position the support on the heat sink . - at least one light source ; - a circuit board intended to supply electrical power to the light source or sources ; - a heat sink supporting the circuit board and capable of dissipating the heat produced by the light source or sources ; - a reflecting surface capable of reflecting the rays from the light source or sources in order to form a light beam on an optical axis of the module; - a support for the reflecting surface on the heat sink , the heat sink comprising, with respect to the optical axis of the module, a rear portion supporting the circuit board and a front portion lower down than the rear portion , the front portion supporting a lens configured to deflect the rays emitted by the light source or sources , the support comprising an opening for holding the lens on the support,
A device for illuminating drinking bottles , comprising a bottle base for receiving a drinking bottle and a charging station , wherein the bottle base has an electrical energy storage device and at least one lighting means , the drinking bottle being able to be illuminated thereby, wherein the charging station has a shaker in order to shake the bottle base , characterized in that the bottle base can be placed on the charging station and can be electrically connected thereto.
Method for manufacturing a three-dimensional object layer by layer by applying and selectively solidifying a constituent material in powder form layer by layer by supply of energy, comprising the steps: applying a layer of the powdery constituent material having a pre-determined height (h) onto a support or a previously at least selectively solidified layer of the constituent material and supplying energy from an energy source into the applied layer at positions corresponding to a cross sectional area of the object to be manufactured for selectively solidifying the constituent material in powder form, wherein the step of applying the layer having the pre-determined height (h) is subdivided into a step of applying a first partial powder layer having a first height (h1) which is smaller than the pre-determined height (h), and a step of applying at least a second partial powder layer having a second height (h2) which is smaller than the pre-determined height (h) onto the first partial powder layer , wherein the total height (h1+h2+ ...) of the applied partial powder layers (32, 33, ...) corresponds to the pre-determined height (h), and between the step of applying the first partial powder layer and the step of applying the second and possibly further partial powder layers, the powder layer applied last is heated, characterized in that between the step of applying the first partial powder layer and the step of applying the second and possibly further partial powder layers, at least in a peripheral region of the object to be manufactured, no supply of energy for selectively solidifying the constituent material is effected. applying a layer of the powdery constituent material having a pre-determined height (h) onto a support or a previously at least selectively solidified layer of the constituent material and supplying energy from an energy source into the applied layer at positions corresponding to a cross sectional area of the object to be manufactured for selectively solidifying the constituent material in powder form, wherein the step of applying the layer having the pre-determined height (h) is subdivided into a step of applying a first partial powder layer having a first height (h1) which is smaller than the pre-determined height (h), and a step of applying at least a second partial powder layer having a second height (h2) which is smaller than the pre-determined height (h) onto the first partial powder layer , wherein the total height (h1+h2+ ...) of the applied partial powder layers (32, 33, ...) corresponds to the pre-determined height (h), and between the step of applying the first partial powder layer and the step of applying the second and possibly further partial powder layers, the powder layer applied last is heated, characterized in that between the step of applying the first partial powder layer and the step of applying the second and possibly further partial powder layers, at least in a peripheral region of the object to be manufactured, no supply of energy for selectively solidifying the constituent material is effected.
A waveguide for carrying waves by inductive coupling, the waveguide comprising a plurality of resonant elements , the plurality of resonant elements including: a first resonant element forming a first major loop, the first major loop providing resistance and inductance of the first resonant element and including a first and a third capacitor ; a second resonant element forming a second major loop, the second major loop providing resistance and inductance of the second resonant element and including a second and a fourth capacitor ; and a coupling section comprising a first and second coupling capacitor , each of the first and the second coupling capacitor comprising a terminal connected to the first resonator and a terminal connected to the second resonator , thereby forming a minor loop, with respective portions of each of the first and second and major loops shared with the minor loop, the shared portions of the first and second major loops contributing to inductance and resistance of the coupling section , the shared portions respectively including the first and second capacitors , the coupling section capacitively coupling the first and second resonant elements , wherein the coupling between the first and second resonant elements produces a first pass-band and a second-pass band, different from the first pass-band, the first pass-band being associated with the resonance of the resonant elements and the second pass-band being associated with resonance of the coupling section . a first resonant element forming a first major loop, the first major loop providing resistance and inductance of the first resonant element and including a first and a third capacitor ; a second resonant element forming a second major loop, the second major loop providing resistance and inductance of the second resonant element and including a second and a fourth capacitor ; and a coupling section comprising a first and second coupling capacitor , each of the first and the second coupling capacitor comprising a terminal connected to the first resonator and a terminal connected to the second resonator , thereby forming a minor loop, with respective portions of each of the first and second and major loops shared with the minor loop, the shared portions of the first and second major loops contributing to inductance and resistance of the coupling section , the shared portions respectively including the first and second capacitors , the coupling section capacitively coupling the first and second resonant elements , wherein the coupling between the first and second resonant elements produces a first pass-band and a second-pass band, different from the first pass-band, the first pass-band being associated with the resonance of the resonant elements and the second pass-band being associated with resonance of the coupling section .
Method for manufacturing an ophthalmic article comprising a substrate having ophthalmic properties and a functional wafer securely fastened to a first curved face of said substrate, said manufacturing method comprising the steps of: - providing said functional wafer preformed according to a first desired shape, the preformed functional wafer having a first preformed face intended to be applied on said first curved face of said substrate, said first preformed face being defined by first geometrical characteristics; - determining second geometrical characteristics of the first curved face of said substrate to be manufactured according to the first geometrical characteristics of said first preformed face of said preformed functional wafer; - manufacturing said first curved face according to the second geometrical characteristics determined, wherein said manufacturing of said first curved face is carried out so that ophthalmic properties of said substrate are maintained when the substrate is a semi-finished lens or a finished lens, or is carried out to provide desired ophthalmic properties when the substrate is a blank; - fixing said preformed functional wafer to said manufactured substrate by applying the first preformed face on the first curved face in order to form said ophthalmic lens. - providing said functional wafer preformed according to a first desired shape, the preformed functional wafer having a first preformed face intended to be applied on said first curved face of said substrate, said first preformed face being defined by first geometrical characteristics; - determining second geometrical characteristics of the first curved face of said substrate to be manufactured according to the first geometrical characteristics of said first preformed face of said preformed functional wafer; - manufacturing said first curved face according to the second geometrical characteristics determined, wherein said manufacturing of said first curved face is carried out so that ophthalmic properties of said substrate are maintained when the substrate is a semi-finished lens or a finished lens, or is carried out to provide desired ophthalmic properties when the substrate is a blank; - fixing said preformed functional wafer to said manufactured substrate by applying the first preformed face on the first curved face in order to form said ophthalmic lens.