mhurhangee/ep-ind-claims huggingface dataset:
An electrical connector, comprising: a plurality of contacts each of the contacts having a tip end; and a female housing having a mating connector receiving cavity, a holding wall disposed along a bottom of the receiving cavity, a plurality of holding holes holding the plurality of contacts penetrating there through, and a protrusion protruding from the holding wall into the receiving cavity; characterized in that the protrusion is entirely disposed between adjacent contacts and comprises a top surface which is arranged closer to the holding wall than the tip ends of the contacts. a plurality of contacts each of the contacts having a tip end; and a female housing having a mating connector receiving cavity, a holding wall disposed along a bottom of the receiving cavity, a plurality of holding holes holding the plurality of contacts penetrating there through, and a protrusion protruding from the holding wall into the receiving cavity; characterized in that the protrusion is entirely disposed between adjacent contacts and comprises a top surface which is arranged closer to the holding wall than the tip ends of the contacts.
A method for wireless communication performed by a base station, BS, the method comprising: transmitting radio resource control, RRC, signaling information regarding a power boosting on/off state of a phase tracking reference signal, PTRS; generating the PTRS; and transmitting the PTRS based on a PTRS power boosting level, which is determined by the BS based on the RRC signaling information regarding the power boosting one/off state of the PTRS and a number of transmission layers in a group of demodulation reference signal, DMRS,-ports associated with the PTRS, in a state where a power boost of the PTRS is on, the PTRS power boosting level is related to a value obtained by a formula '10 ∗ log 10 ', where 'L' denotes the number of the transmission layers. transmitting radio resource control, RRC, signaling information regarding a power boosting on/off state of a phase tracking reference signal, PTRS; generating the PTRS; and transmitting the PTRS based on a PTRS power boosting level, which is determined by the BS based on the RRC signaling information regarding the power boosting one/off state of the PTRS and a number of transmission layers in a group of demodulation reference signal, DMRS,-ports associated with the PTRS, in a state where a power boost of the PTRS is on, the PTRS power boosting level is related to a value obtained by a formula '10 ∗ log 10 ', where 'L' denotes the number of the transmission layers.
A method for cellular analysis on a cell or cellular particle, wherein said cell is a whole cell of animal, plant, bacterial or fungal origin, or said cellular particle is selected from the group consisting of an isolated chromosome, an isolated nucleus, an isolated mitochondrion, an isolated chloroplast, and an isolated virus, the method comprising: (a) fixing and permeabilizing the cell or the cellular particle; (b) incubating the cell or the cellular particle in a hybridization solution with a nucleic acid probe specific for a target nucleic acid, the probe labeled with a unique element tag such that one type of said probe labeled with one type of said tag is distinguishable from any other type of said probe labeled with a different type of said tag by elemental analysis comprising ICP-MS; (c) separating unhybridized probe from probe hybridized to the target nucleic acid by stringent washing conditions; and (d) analyzing the cell or cellular particle by ICP-MS to identify the probe and quantify the probe bound to the target nucleic acid, wherein each element tag comprises a chemical moiety that includes an elemental atom or a multitude of elemental atoms with one or many isotopes attached to a supporting molecular structure, and wherein the element tag further comprises a means of attaching said tag to a substrate. (a) fixing and permeabilizing the cell or the cellular particle; (b) incubating the cell or the cellular particle in a hybridization solution with a nucleic acid probe specific for a target nucleic acid, the probe labeled with a unique element tag such that one type of said probe labeled with one type of said tag is distinguishable from any other type of said probe labeled with a different type of said tag by elemental analysis comprising ICP-MS; (c) separating unhybridized probe from probe hybridized to the target nucleic acid by stringent washing conditions; and (d) analyzing the cell or cellular particle by ICP-MS to identify the probe and quantify the probe bound to the target nucleic acid,
A knob device, applicable to a touch panel, the knob device comprising: a knob cover; a plurality of sensing pads, fixedly arranged on the touch panel, wherein the plurality of sensing pads and a plurality of gaps are distributed in a ring area around a center of an orthographic projection of the knob cover, and one of the plurality of gaps is formed between every two neighboring sensing pads among the plurality of sensing pads; and a rotation sensing element, connected to the knob cover, wherein when the knob cover is rotated, the rotation sensing element is rotated synchronously; characterized in that when a touch and rotation event of the knob device occurs, the rotation sensing element moves in such a way that it overlaps either only one of the plurality of sensing pads, or only one of the plurality of sensing pads and only one of the plurality of gaps, or only one of the plurality of gaps, wherein when the rotation sensing element overlaps one of the plurality of sensing pads in response to the touch and rotation event of the knob device, a location of the rotation sensing element controls a rotation sensing signal of the touch panel, and when the rotation sensing element overlaps only one of the plurality of gaps in response to the touch and rotation event of the knob device, the rotation sensing element does not induce the rotation sensing signal of the touch panel. a knob cover; a plurality of sensing pads, fixedly arranged on the touch panel, wherein the plurality of sensing pads and a plurality of gaps are distributed in a ring area around a center of an orthographic projection of the knob cover, and one of the plurality of gaps is formed between every two neighboring sensing pads among the plurality of sensing pads; and a rotation sensing element, connected to the knob cover, wherein when the knob cover is rotated, the rotation sensing element is rotated synchronously; characterized in that when a touch and rotation event of the knob device occurs, the rotation sensing element moves in such a way that it overlaps either only one of the plurality of sensing pads, or only one of the plurality of sensing pads and only one of the plurality of gaps, or only one of the plurality of gaps, wherein when the rotation sensing element overlaps one of the plurality of sensing pads in response to the touch and rotation event of the knob device, a location of the rotation sensing element controls a rotation sensing signal of the touch panel, and when the rotation sensing element overlaps only one of the plurality of gaps in response to the touch and rotation event of the knob device, the rotation sensing element does not induce the rotation sensing signal of the touch panel.
A lubricating composition comprising a major amount of an oil of lubricating viscosity and 0.01 to 25 percent by mass, based on the mass of the composition of an oil-soluble copolymer comprising units (a) and units (b): -N(COR 1)CH 2 CH 2 - (a) -N(COR 2)CH 2 CH 2 CH 2 - (b) wherein units (a) comprise from 10 to 90 mol% of the copolymer and units (b) comprise from 10 to 90 mol% of the copolymer; wherein the polymer carries an inorganic or organic nucleophilic polymerisation terminating group (t), and an initiator group (i) connected to the N atom of a repeat unit (a) or (b), the initiator group (i) being effective to initiate the polymerisation of linear, branched or cyclic hydrocarbyl moieties; wherein R 1 and R 2 are the same or different and are a single or a mixture of linear, branched or cyclic hydrocarbyl groups having 1-50 carbon atoms, some or all having 12-50 carbon atoms, or of at least one macro-monomeric hydrocarbyl group with more than 50 carbon atoms; and wherein the copolymer has a number average molecular weight (Mn) of 2,000-500,000 g/mol, as measured by Gel Permeation Chromatography with reference to linear narrow poly(methylmethacrylate) standards in the range of 550 to 600,000 g/mol.
Building element for timber wall and ceiling structures, the building element comprising a massive plate, the massive plate being formed as a cross laminated massive plate characterized in that said massive plate comprises at least three or more layers of alternately orientated lamellas (2,3,4,5), whereby a layer of outer lamellas lies transversely on a layer of inner lamellas, wherein, in the layer of outer lamellas and between them, ribs being spaced from each other for a certain distance are positioned so that with their smaller contact surface they lie perpendicularly on the layer of inner lamellas and over side contact surfaces they are joined with the neighboring outer lamellas, whereby the ribs, the outer lamellas and the inner lamellas are forming together a virtual slot.
Driver assistance system, in particular for a utility vehicle, having at least one sensor with which driving data relating to the course of a route which is currently being driven on are determined, wherein determined driving data for the course of in each case a predetermined last route section (x), currently being driven on in a forward direction, are stored in a temporary memory, and wherein when the assistance function and reverse drive are activated the driver receives, by evaluation of the driving data stored in the temporary memory, an orientation aid for reversing on the recorded route section (x) which has previously been driven on in a forward direction, by means of optical information and/or acoustic and/or haptic information and/or by means of automatic steering interventions, and wherein a, preferably schematic, plan view or a 3D image of the current surroundings with a reversal trajectory which is projected thereon and is derived from the preceding stored route section (x) which was driven along in a forward direction is made available as an optical orientation aid to the driver on a screen, characterized in that by means of suitable computing operations the stored driving data and the respectively acquired sensor data for the surroundings are processed to form orientation aids for retracing a route section (x) which has been previously driven along, with a vehicle combination composed of a tractor machine with a trailer/semitrailer or a bendy bus.
Hydraulic brake arrangement for controlling a brake of a vehicle, said arrangement comprising a pump configured to suck fluid from a source of fluid towards said brake via a conduit and a first, a second and a third valves (7, 8, 9) fluidly interposed in series on said conduit, said first valve being an electro-actuated valve configured to assume a first position into which it allows passage of fluid from said pump towards said second valve and a second position into which it allows passage of fluid from said second valve to a discharge, said second valve being an electro-actuated valve configured to assume a first position into which it allows passage of fluid between said first and third valves (7, 9) and a second position into which it allows passage of fluid from said second valve to a discharge, said third valve being an electro-actuated bistable valve configured to assume a first position into which it allows passage of fluid between said second valve and said brake and a second position into which it allows passage of fluid only from said second valve to said brake wherein said third valve comprises a first and second solenoids (9a, 9b) acting on opposite sides of spool of said third valve, said third valve further comprises a mechanical detent configured to maintain said valve in the selected position, wherein said mechanical detent is electro-actuated, and characterized in that said third valve comprises a selection coil configured to allow movement of said electro-actuated mechanical detent. said first valve being an electro-actuated valve configured to assume a first position into which it allows passage of fluid from said pump towards said second valve and a second position into which it allows passage of fluid from said second valve to a discharge, said second valve being an electro-actuated valve configured to assume a first position into which it allows passage of fluid between said first and third valves (7, 9) and a second position into which it allows passage of fluid from said second valve to a discharge, said third valve being an electro-actuated bistable valve configured to assume a first position into which it allows passage of fluid between said second valve and said brake and a second position into which it allows passage of fluid only from said second valve to said brake wherein said third valve comprises a first and second solenoids (9a, 9b) acting on opposite sides of spool of said third valve, said third valve further comprises a mechanical detent configured to maintain said valve in the selected position, wherein said mechanical detent is electro-actuated, and characterized in that said third valve comprises a selection coil configured to allow movement of said electro-actuated mechanical detent.
A method of forming an antireflective coating on an electronic device comprising applying to an electronic device an ARC composition comprising (i)a silsesquioxane resin having the formula (PhSiO (3-x)/2 x) m HSiO (3-x)/2 x) n, where Ph is a phenyl group, x has a value of 0, 1 or 2; m has a value of 0.05 to 0.95, n has a value of 0.05 to 0.95 and m + n ≈ 1; and (ii) a solvent; and removing the solvent and curing the silsesquioxane resin to form an antireflective coating on the electronic device. applying to an electronic device an ARC composition comprising (i)a silsesquioxane resin having the formula (PhSiO (3-x)/2 x) m HSiO (3-x)/2 x) n, where Ph is a phenyl group, x has a value of 0, 1 or 2; m has a value of 0.05 to 0.95, n has a value of 0.05 to 0.95 and m + n ≈ 1; and (ii) a solvent; and (i)a silsesquioxane resin having the formula (PhSiO (3-x)/2 x) m HSiO (3-x)/2 x) n, where Ph is a phenyl group, x has a value of 0, 1 or 2; m has a value of 0.05 to 0.95, n has a value of 0.05 to 0.95 and m + n ≈ 1; and (ii) a solvent; and removing the solvent and curing the silsesquioxane resin to form an antireflective coating on the electronic device.
A laminate comprising a surface layer having a surface formed in a fine relief structure, wherein the surface layer includes a layer composed of a cured product of an active energy ray-curable resin composition, wherein the active energy ray-curable resin composition contains a tri- or higher functional (meth)acrylate and a bifunctional (meth)acrylate, wherein a content of the tri- or higher functional (meth)acrylate is from 5 to 40 parts by mass and a content of the bifunctional (meth)acrylate is from 20 to 80 parts by mass (provided that a total of polymerizable components in the active energy ray-curable resin composition is 100 parts by mass), wherein an elastic modulus of the surface layer is less than 160 MPa and a slope of a friction coefficient of the surface layer is 1.8 × 10 -3 or less, wherein the slope of the friction coefficient μ s is calculated by the following Equation: μ s = μ 50 − μ 1 / 50 − 1 wherein μ 1 is a value of the dynamic friction coefficient at the first friction and μ 50 is a value of the dynamic friction coefficient at the fiftieth friction, and wherein the dynamic friction coefficient of the laminate is measured by using a friction tester under the following conditions: a load of 1000 g is applied to the BEMCOT® M-3II having an area of 2 cm 2 which is placed on the surface of the laminate and the reciprocating friction is performed 50 times at a reciprocating distance of 30 mm and a head speed of 30 mm/sec.
Automatic coffee machine comprising a control circuit, a dispensing head comprising at least one coffee outlet and an infusion device, said infusion device comprising an infusion chamber equipped with an upper opening intended to receive the coffee grounds and a pressing piston movable between a high removal position wherein it is located above the infusion chamber and a low compaction position wherein it penetrates into the infusion chamber through the upper opening, said infusion chamber being supplied with hot water by an electric pump and being fluidly connected to the at least one coffee outlet by a coffee discharge conduit passing through the pressing piston, automatic coffee machine wherein a vent conduit is connected to the discharge conduit at a joining zone arranged in the proximity of the pressing piston and wherein the vent conduit comprises a solenoid valve, the control circuit controlling the solenoid valve to make it pass from a closing position of the vent conduit to an opening position of the vent conduit wherein the joining zone is connected to the ambient air present around the automatic coffee machine, just after having stopped the electric pump at the end of the infusion of a coffee, such that the coffee present in the discharge conduit after the stopping of the electric pump flows through gravity, continuously following the coffee already dispensed.
An apparatus for measuring a phase shift result of a physical system excited by an excitation signal, comprising: a frequency generator configured to produce the excitation signal having an excitation frequency, f x, a local oscillator signal having a local oscillator frequency, f lo, and a reference signal, where the reference signal has a difference frequency, f r, that is equal to f x - f lo, and f x, f lo, and f r are coherent; a mixer configured to detect an output signal of the physical system in response to the excitation signal and mix the output signal of the physical system with the local oscillator signal; a filter configured to select a difference frequency component of an output signal of the mixer; at least one demodulator element configured to receive the difference frequency component and the reference signal; and a computational element configured to: cause f x, or f lo, or both, to vary such that |f x - f lo | is constant, but a relationship between f x and f lo changes from f lo < f x to f lo >f x, measure a phase shift of the demodulated frequency difference component with respect to the reference signal while f lo < f x to produce a measurement at f lo < f x, and while f lo >f x to produce a measurement at f lo >f x, and subtract the measurement at f lo >f x from the measurement at f lo >f x, and divide in half, to produce the phase shift result. a frequency generator configured to produce the excitation signal having an excitation frequency, f x, a local oscillator signal having a local oscillator frequency, f lo, and a reference signal, where the reference signal has a difference frequency, f r, that is equal to f x - f lo, and f x, f lo, and f r are coherent; a mixer configured to detect an output signal of the physical system in response to the excitation signal and mix the output signal of the physical system with the local oscillator signal; a filter configured to select a difference frequency component of an output signal of the mixer; at least one demodulator element configured to receive the difference frequency component and the reference signal; and a computational element configured to: cause f x, or f lo, or both, to vary such that |f x - f lo | is constant, but a relationship between f x and f lo changes from f lo < f x to f lo >f x, measure a phase shift of the demodulated frequency difference component with respect to the reference signal while f lo < f x to produce a measurement at f lo < f x, and while f lo >f x to produce a measurement at f lo >f x, and subtract the measurement at f lo >f x from the measurement at f lo >f x, and divide in half, to produce the phase shift result. cause f x, or f lo, or both, to vary such that |f x - f lo | is constant, but a relationship between f x and f lo changes from f lo < f x to f lo >f x, measure a phase shift of the demodulated frequency difference component with respect to the reference signal while f lo < f x to produce a measurement at f lo < f x, and while f lo >f x to produce a measurement at f lo >f x, and subtract the measurement at f lo >f x from the measurement at f lo >f x, and divide in half, to produce the phase shift result.
A packaging machine comprising a work station (2, 2a, 3, 4, 5) having an interior, which is surrounded by a wall and which has arranged therein a tool with at least one heating element and/or at least one actor, wherein a bus node assembly is configured to provide via an interface information on the tool and/or to receive via the interface control data for the tool, characterized in that the bus node assembly is arranged on the outside of the wall which faces away from the interior, and the bus node assembly comprises the following: - a housing cap, - at least one circuit board populated with electronic components, and - the interface connected to the at least one circuit board and used for connection to a communication bus. - a housing cap, - at least one circuit board populated with electronic components, and - the interface connected to the at least one circuit board and used for connection to a communication bus.
An electric machine comprising a stator and a rotor which is movable relative to the stator, characterized in that - the stator comprises a first winding (A1, B1, C1) and at least one second winding (A2, B2, C2) which are each designed as a multi-strand, tooth-concentrated winding and are inserted in respective slots of the stator, - the first winding (A1, B1, C1) comprises six coils, which are inserted in six slots, - the second winding (A2, B2, C2) comprises twelve coils which are inserted in twelve slots. - the stator comprises a first winding (A1, B1, C1) and at least one second winding (A2, B2, C2) which are each designed as a multi-strand, tooth-concentrated winding and are inserted in respective slots of the stator, - the first winding (A1, B1, C1) comprises six coils, which are inserted in six slots, - the second winding (A2, B2, C2) comprises twelve coils which are inserted in twelve slots.