mhurhangee/patent-ind-claim-en huggingface dataset:
A washing machine with a locking mechanism for an inner tub , wherein the locking mechanism comprises a locking rod capable of reciprocating along an axial direction, a slideway for a movement of the locking rod and a driving unit for driving the locking rod to move; wherein, the locking mechanism further comprises a position switch , and a triggering structure of the position switch is arranged on the locking rod , characterized in that after the locking rod sticks into a locking hole and is locked in place, the triggering structure triggers the position switch to send out a locked-in-place signal; and after the locking rod retracts from the locking hole and is subjected to retracting resetting, the triggering structure triggers the position switch to send out an unlocked-in-place signal, wherein the locking mechanism is arranged on an outer tub of the washing machine, and the locking hole is formed in the inner tub , wherein the inner tub is locked when the locking rod sticks into the locking hole , the inner tub is unlocked when the locking rod leaves the locking hole , and a sealing structure is arranged between the locking mechanism and the outer tub . characterized in that after the locking rod sticks into a locking hole and is locked in place, the triggering structure triggers the position switch to send out a locked-in-place signal; and after the locking rod retracts from the locking hole and is subjected to retracting resetting, the triggering structure triggers the position switch to send out an unlocked-in-place signal, wherein the locking mechanism is arranged on an outer tub of the washing machine, and the locking hole is formed in the inner tub , wherein the inner tub is locked when the locking rod sticks into the locking hole , the inner tub is unlocked when the locking rod leaves the locking hole , and a sealing structure is arranged between the locking mechanism and the outer tub .
An injection molding module for performing a series of injection over molding actions, the module comprising a robotic system and a series of anchoring members for fixing at least a portion of the robotic system at each location where an injection molding action takes place, wherein the robotic system comprises a robot and an injection molding unit coupled to the robot, characterized in that the robot is an articulated robot and the injection molding unit is coupled to the last manipulator of the robot .
An optical transmission filter , configured to transmit a portion of the spectrum of a light beam incident on said filter , comprising a substrate having a first substrate surface and a second substrate surface opposite to said first substrate surface , and comprising a nanostructured metallic layer and a waveguide, wherein - said first substrate surface is a patterned surface comprising an array of nanostructures consisting of adjacent ridges (11a-11n) and grooves (13a-13n); - a high refractive index dielectric waveguide is arranged on said first substrate surface and has a patterned shape defined by said first substrate surface , said dielectric waveguide having a refractive index n1 between 1.45 and 3.3; - a low index dielectric layer is arranged on top of said dielectric waveguide and has a patterned shape defined by said dielectric waveguide , said patterned shape defining adjacent ridges (31a-31n) and grooves (33a-33n), said dielectric layer having a refractive index n2 between 1.15 and 1.7, n2 being lower than n 1; - an array of metallic nanostructures (42a-42n) is arranged on at least a portion of said low index dielectric layer and having, at least partially, a patterned shape defined by said dielectric waveguide , - said first substrate surface is a patterned surface comprising an array of nanostructures consisting of adjacent ridges (11a-11n) and grooves (13a-13n); - a high refractive index dielectric waveguide is arranged on said first substrate surface and has a patterned shape defined by said first substrate surface , said dielectric waveguide having a refractive index n1 between 1.45 and 3.3; - a low index dielectric layer is arranged on top of said dielectric waveguide and has a patterned shape defined by said dielectric waveguide , said patterned shape defining adjacent ridges (31a-31n) and grooves (33a-33n), said dielectric layer having a refractive index n2 between 1.15 and 1.7, n2 being lower than n 1; - an array of metallic nanostructures (42a-42n) is arranged on at least a portion of said low index dielectric layer and having, at least partially, a patterned shape defined by said dielectric waveguide ,
A method comprising: a step of positioning a composite layup over a die, wherein: the composite layup comprises a planar portion and a non-planar portion , extending away from the planar portion in a direction away from the die , and a step of positioning a caul over the non-planar portion of the composite layup, wherein: the caul is configured to conform to a surface of the non-planar portion; a step of positioning a mandrel over the caul, wherein: the caul is disposed between the mandrel and the non-planar portion, and a difference between a coefficient of thermal expansion (CTE) of the caul and a CTE of the composite layup is less than a difference between the CTE of the mandrel and the CTE of the caul; a step of positioning a bladder over the mandrel and over the planar portion of the composite layup; a step of heating the composite layup using an induction heater ; and a step of applying pressure using the bladder onto the mandrel and the planar portion of the composite layup. a step of positioning a composite layup over a die, wherein: the composite layup comprises a planar portion and a non-planar portion , extending away from the planar portion in a direction away from the die , and a step of positioning a caul over the non-planar portion of the composite layup, wherein: the caul is configured to conform to a surface of the non-planar portion; a step of positioning a mandrel over the caul, wherein: the caul is disposed between the mandrel and the non-planar portion, and a difference between a coefficient of thermal expansion (CTE) of the caul and a CTE of the composite layup is less than a difference between the CTE of the mandrel and the CTE of the caul; the caul is disposed between the mandrel and the non-planar portion, and a difference between a coefficient of thermal expansion (CTE) of the caul and a CTE of the composite layup is less than a difference between the CTE of the mandrel and the CTE of the caul; a step of positioning a bladder over the mandrel and over the planar portion of the composite layup; a step of heating the composite layup using an induction heater ; and a step of applying pressure using the bladder onto the mandrel and the planar portion of the composite layup.
Electrode active material for a lithium-ion battery of general formula (I) Li 1+x (Ni a Co b Mn c M d ) 1-x O 2 (I) wherein x is in the range of from zero to 0.05, a is in the range of from 0.1 to 0.3, b is in the range of from 0.5 to 0.8, c is in the range of from zero to 0.15, d is in the range of from zero to below 0.05, M is selected from Al, B, Mg, W, Mo, Ti, Si and Zr, witha+ b + c + d = 1 and a > c and 0.01 ≤ c + d ≤ 0.15 and wherein Co and Ni are homogeneously distributed over the particle diameter of the electrode active material. x is in the range of from zero to 0.05, a is in the range of from 0.1 to 0.3, b is in the range of from 0.5 to 0.8, c is in the range of from zero to 0.15, d is in the range of from zero to below 0.05, M is selected from Al, B, Mg, W, Mo, Ti, Si and Zr, witha+ b + c + d = 1 and a > c and 0.01 ≤ c + d ≤ 0.15 and wherein Co and Ni are homogeneously distributed over the particle diameter of the electrode active material.
Cylindrical calibration head for drilling a shaft comprising three flutes extending along the axis of said head and uniformly distributed around the circumference so that they are separated from each other by an angle of 120° in rotation about the axis of the calibration head , the flutes being used for evacuation of chips and passage of the lubrication during drilling, each of the flutes comprising a machining insert, the head comprises at least one front guide pad arranged on the outside surface of the head in a zone corresponding to the front end of the head , and a plurality of back guide pads placed on the outside surface of said head in a second zone defining the back zone of said head, one of back guide pads being placed behind one among the or each front guide pad, along the same axis there the head is characterised in that the position of each machining insert is adjusted in the flute by means of an adjustment cartridge, and that two back guide pads among the plurality of back guide pads being arranged symmetrically relative to each other about the axis of the head .
A check valve system for a through hole in a wall of a compartment to limit a pressure difference between an inside and an outside of the compartment, comprising - a base having a flow passage with an open end and a sealing surface surrounding the open end , - an elastic membrane covering the open end , and - a protector covering at least a portion of the elastic membrane , wherein the elastic membrane is elastically stretched over and forced against the sealing surface surrounding the open end so as to seal the flow passage , characterized in that the elastic membrane is arranged to lift from the sealing surface when a pressure inside the flow passage under the elastic membrane exceeds a pressure above the elastic membrane by a pressure difference in the range of 1 mbar to 200 mbar, wherein the elastic membrane is a multilayer membrane comprising at least one elastic layer which is porous or comprises macroscopic openings and at least one porous stabilizing layer with limited extendibility. - a base having a flow passage with an open end and a sealing surface surrounding the open end , - an elastic membrane covering the open end , and - a protector covering at least a portion of the elastic membrane ,
Backrest assembly for pile warp threads in a terry weaving machine , comprising a tension roller and a support beam , wherein the tension roller is arranged to guide the pile warp threads , wherein the support beam is mountable to a frame of the weaving machine so as to be rotatable to-and-fro about a support beam axis , and wherein the tension roller is supported in parallel to the support beam by two or more support elements , which support elements are mounted fixed in position to the support beam , wherein the tension roller is loaded by at least one bellow spring , wherein at least one bellow spring is coupled to the support beam by a linkage system having at least a coupling lever attached to the support beam to rotate with the support beam , characterized in that a distance between the force application position of the at least one bellow spring on the coupling lever and the support beam axis is shorter than or equal to a distance between an axis of the tension roller and the support beam axis .
A method for wireless communication, performed by an apparatus and comprising: transmitting a set of beamformed reference signals, RSs, to a user equipment, UE, during a beam tracking procedure, wherein the set of beamformed RSs includes at least two beamformed RSs; transmitting a request message in one of the RSs to the UE, the request message comprising a request for the UE to transmit a set of sounding reference signals, SRSs, the set of SRSs comprising at least two beamformed signals; receiving the set of SRSs from the UE in accordance with the request message; calculating a co-phasing parameter associated with the at least two beamformed signals; identifying , based at least in part on the co-phasing parameter associated with the at least two beamformed signals, an antenna port precoder configuration to use for communicating with the UE; and communicating with the UE using one or more beamformed signals configured according to the identified antenna port precoder configuration. transmitting a set of beamformed reference signals, RSs, to a user equipment, UE, during a beam tracking procedure, wherein the set of beamformed RSs includes at least two beamformed RSs; transmitting a request message in one of the RSs to the UE, the request message comprising a request for the UE to transmit a set of sounding reference signals, SRSs, the set of SRSs comprising at least two beamformed signals; receiving the set of SRSs from the UE in accordance with the request message; calculating a co-phasing parameter associated with the at least two beamformed signals; identifying , based at least in part on the co-phasing parameter associated with the at least two beamformed signals, an antenna port precoder configuration to use for communicating with the UE; and communicating with the UE using one or more beamformed signals configured according to the identified antenna port precoder configuration.
Method for providing a medical image of a patient (P), which image has been acquired by means of a computed tomography apparatus , comprising the following steps: - acquiring first projection data of a first measurement region by means of the computed tomography apparatus , wherein at least one respiration-correlated image of the patient corresponding to respiration of the patient is reconstructed from the first projection data; - acquiring second projection data of a second measurement region by means of the computed tomography apparatus , wherein at least one functional image of the patient is reconstructed under a first reconstruction rule from the second projection data, and wherein the first measurement region and the second measurement region overlap at least partially; - registering a reference image to the at least one respiration-correlated image of the patient, wherein a deformation model is produced; - applying the deformation model to the at least one functional image of the patient; - combining the deformed at least one functional image of the patient with the at least one respiration-correlated image of the patient, thereby producing the medical image of the patient; and - providing the medical image of the patient, characterised in that the reference image is reconstructed under a second reconstruction rule from the second projection data, wherein the first reconstruction rule is optimised with regard to a functional contrast, and wherein the second reconstruction rule is optimised with regard to an anatomical contrast. - acquiring first projection data of a first measurement region by means of the computed tomography apparatus , wherein at least one respiration-correlated image of the patient corresponding to respiration of the patient is reconstructed from the first projection data; - acquiring second projection data of a second measurement region by means of the computed tomography apparatus , wherein at least one functional image of the patient is reconstructed under a first reconstruction rule from the second projection data, and wherein the first measurement region and the second measurement region overlap at least partially; - registering a reference image to the at least one respiration-correlated image of the patient, wherein a deformation model is produced; - applying the deformation model to the at least one functional image of the patient; - combining the deformed at least one functional image of the patient with the at least one respiration-correlated image of the patient, thereby producing the medical image of the patient; and - providing the medical image of the patient,
A crystalline trihydrate form of 4,4'-disulfanediylbis(3-aminobutane 1-sulfonic acid), wherein it exhibits the following X-Ray diffraction properties: h k l 2θ(°) d(Å) I(%) 0 0 1 5.09 17.34 76 0 1 2 14.30 6.19 23 0 0 3 15.30 5.79 100 -1 0 2 17.62 5.03 15 0 1 3 18.32 4.84 96 1 0 2 18.61 4.76 30 1 1 1 18.98 4.67 16 -1 1 2 20.34 4.36 26 0 2 1 20.75 4.28 26 1 1 2 21.16 4.19 11 1 0 3 22.09 4.02 37 0 1 4 22.79 3.90 37 -1 1 3 23.12 3.84 6 -1 0 4 24.65 3.61 74 1 2 0 25.15 3.54 7 0 0 5 25.60 3.48 62 1 2 1 25.83 3.45 39 -1 1 4 26.66 3.34 7 0 1 5 27.52 3.24 13 1 1 4 28.05 3.18 4 -1 0 5 28.94 3.08 4
A method of classifying information comprising: receiving an electronic message; breaking down the electronic message received into component parts characterized in that the method further comprises; extracting at least one selected object in form of an encoded payload and at least one flow pattern from the component parts; combining and comparing the at least one selected object and the at least one flow pattern with objects and flow patterns observed in other electronic messages, in order to analyze and to predict a classification of the received electronic message; wherein comparing further includes an occurrence count that is associated with the at least one selected object and that is determined - by observing or counting related events that are associated with the movement of the electronic message, - by counting the receipts, log files or events associated with the observation of message movement, and/or - by measuring the volume flow and comparing to the occurrence count; wherein the flow pattern is an evaluation of selected sender recipient communication patterns , wherein the at least one flow pattern and the analysis of the at least one selected object are used to impute a classification for the object, groups of objects, the message, groups of messages or the parties, communities involved in the message exchange or combinations thereof. receiving an electronic message; breaking down the electronic message received into component parts characterized in that the method further comprises; extracting at least one selected object in form of an encoded payload and at least one flow pattern from the component parts; combining and comparing the at least one selected object and the at least one flow pattern with objects and flow patterns observed in other electronic messages, in order to analyze and to predict a classification of the received electronic message; wherein comparing further includes an occurrence count that is associated with the at least one selected object and that is determined - by observing or counting related events that are associated with the movement of the electronic message, - by counting the receipts, log files or events associated with the observation of message movement, and/or - by measuring the volume flow and comparing to the occurrence count; - by observing or counting related events that are associated with the movement of the electronic message, - by counting the receipts, log files or events associated with the observation of message movement, and/or - by measuring the volume flow and comparing to the occurrence count; wherein the flow pattern is an evaluation of selected sender recipient communication patterns , wherein the at least one flow pattern and the analysis of the at least one selected object are used to impute a classification for the object, groups of objects, the message, groups of messages or the parties, communities involved in the message exchange or combinations thereof.
An integrated optics block for use in a coherent optical transmission system, the optics block comprising: a polarisation rotator for receiving a second modulated light signal from an optical transmitter chip and configured to rotate a polarisation of the second modulated light signal such that it is substantially orthogonal to a polarisation of a first modulated light signal from the optical transmitter chip prior to combining; a polarisation combiner configured to receive the first and the polarisation rotated second modulated light signals, wherein the polarization combiner is configured to combine the first modulated light signal and the polarisation rotated second modulated light signal to form an output; and a beam splitter configured to receive an input light signal, to split the input light signal into first and second input light signals, to output the first input light signal for use in the optical transmitter chip and to output the second input light signal for use as a local oscillator signal, wherein the beam splitter comprises a prism and wherein a surface of the prism abuts a surface of the polarisation combiner at an interface , and wherein the beam splitter is configured such that first input light signal passes through the polarisation combiner before output to the optical transmitter chip and the second light signal is output to a local oscillator port. a polarisation rotator for receiving a second modulated light signal from an optical transmitter chip and configured to rotate a polarisation of the second modulated light signal such that it is substantially orthogonal to a polarisation of a first modulated light signal from the optical transmitter chip prior to combining; a polarisation combiner configured to receive the first and the polarisation rotated second modulated light signals, wherein the polarization combiner is configured to combine the first modulated light signal and the polarisation rotated second modulated light signal to form an output; and a beam splitter configured to receive an input light signal, to split the input light signal into first and second input light signals, to output the first input light signal for use in the optical transmitter chip and to output the second input light signal for use as a local oscillator signal, wherein the beam splitter comprises a prism and wherein a surface of the prism abuts a surface of the polarisation combiner at an interface , and a beam splitter configured to receive an input light signal, to split the input light signal into first and second input light signals, to output the first input light signal for use in the optical transmitter chip and to output the second input light signal for use as a local oscillator signal, wherein the beam splitter comprises a prism and wherein a surface of the prism abuts a surface of the polarisation combiner at an interface , and
Piston-cylinder device, comprising a delivery means arranged outside the cylinder housing, a suction or pressure tube which can be brought into fluid connection with a pressure device being provided, which tube is statically arranged in the cylinder cavity and on which an axially movable piston having a hollow piston rod is slidably mounted, the hollow piston rod being arranged on top of the piston and being formed together with or connected to the delivery means , characterized in that the hollow piston rod or a tube portion connected thereto has an inner closure plug below the delivery means , which plug closes a top opening of the suction or pressure tube in a form-fitting manner when the hollow piston rod is in the drawn-in position and opens said opening when the hollow piston rod draws out, it being possible to establish a fluid connection between the delivery means and the suction or pressure tube at the same time.
A method of manufacturing an anode active material of a core-shell structure, said method comprising: (S1) forming a composite of a core-shell structure by coating a shell including a carbon material on a surface of a core including oxide of a (quasi)metal; (S2) forming a mixture by mixing the composite with lithium metal powder; and (S3) thermally treating the mixture, wherein the core, after thermally treating the mixture, comprises an alloyed (quasi) metal oxide-Li (MO x -Li y ) where M represents a (quasi)metal selected from the group consisting of Si, Sn, and alloys thereof, x is greater than 0 and less than 1.5, and y is greater than 0 and less than 4, wherein a crystal grain size of a (quasi)metal in the (quasi)metal oxide included in the core ranges from 100nm to 200nm. (S1) forming a composite of a core-shell structure by coating a shell including a carbon material on a surface of a core including oxide of a (quasi)metal; (S2) forming a mixture by mixing the composite with lithium metal powder; and (S3) thermally treating the mixture,