mhurhangee/patent-ind-claim-en huggingface dataset:
A method in a user equipment of transmitting data in a radio frame configured for Time Division Duplex, TDD, communication, wherein the radio frame comprises a special subframe, wherein the special subframe comprises at least one uplink part, said method comprising: in case of a data transmission without repetition, determining a number of symbols in the uplink part of the special subframe; characterized in that if the number of symbols in the uplink part of the special subframe is greater than a threshold, counting the special subframe as part of a resource unit containing at least one normal uplink subframe and performing rate matching for the resource unit using the symbols in the uplink part of the special subframe. in case of a data transmission without repetition, determining a number of symbols in the uplink part of the special subframe; characterized in that if the number of symbols in the uplink part of the special subframe is greater than a threshold, counting the special subframe as part of a resource unit containing at least one normal uplink subframe and performing rate matching for the resource unit using the symbols in the uplink part of the special subframe.
A tool for handling of a wheel, which tool comprises - a supporting part having a first end and a second end , - a first compression part having a compression end and a tension end , arranged at the first end of the supporting part pivotally in a plane, - a second compression part having a compression end (2'a) and a tension end (2'b), arranged at the second end of the supporting part pivotally in a plane, - moving means for moving the first compression part and the second compression part in relation to the supporting part, which moving means are arranged between the first compression part and the second compression part and into direct connection with the first compression part and the second compression part, characterised in that at least two end holders have been arranged on the outer surface of the supporting part, one at its first end and one at its second end, which holders are arranged to be used in connection with a pushing means (6, 6', 6", 6"', 18, 18'). - a supporting part having a first end and a second end , - a first compression part having a compression end and a tension end , arranged at the first end of the supporting part pivotally in a plane, - a second compression part having a compression end (2'a) and a tension end (2'b), arranged at the second end of the supporting part pivotally in a plane, - moving means for moving the first compression part and the second compression part in relation to the supporting part, which moving means are arranged between the first compression part and the second compression part and into direct connection with the first compression part and the second compression part,
A shaking culture apparatus comprising: a culture bag made from a thermoplastic resin film or a laminate of thermoplastic resin film; an outer shell container being arranged to house the entirety of said culture bag to be able to perform adjustment of a temperature thereof; a power source for shaking said outer shell container housing said culture bag , a device for detecting a height of liquid level of contents in said culture bag ; and an adjustment mechanism for adjusting a rotation number of shaking of said outer shell container housing said culture bag so that the height of the liquid level of said contents becomes constant, wherein said culture bag is provided with a spout , and said spout is fixed to said culture bag by sealing a base of said spout on a back side of a film of said culture bag , and said contents in said culture bag can be stirred and mixed by shaking said outer shell container housing said culture bag so that a center of said outer shell container revolves in orbit on an orbit C of radius R; wherein the culture bag is a gusset bag. a culture bag made from a thermoplastic resin film or a laminate of thermoplastic resin film; an outer shell container being arranged to house the entirety of said culture bag to be able to perform adjustment of a temperature thereof; a power source for shaking said outer shell container housing said culture bag , a device for detecting a height of liquid level of contents in said culture bag ; and an adjustment mechanism for adjusting a rotation number of shaking of said outer shell container housing said culture bag so that the height of the liquid level of said contents becomes constant, said culture bag is provided with a spout , and said spout is fixed to said culture bag by sealing a base of said spout on a back side of a film of said culture bag , and said contents in said culture bag can be stirred and mixed by shaking said outer shell container housing said culture bag so that a center of said outer shell container revolves in orbit on an orbit C of radius R;
A spiro three-membered ring, spiro five-membered ring peptide deformylase inhibitor for use as an anti-tumor agent, wherein the structure of the inhibitor is represented by the following formula : wherein in the formula , n=2 or 4; R 1 is n-butyl or cyclopentylmethyl; R 2 is selected from aromatic ring, aromatic heterocyclic ring, heterocyclic ring, or alkyl; and R 3 is hydrogen or alkyl.
An operating device , comprising: an operating member ; a rotation shaft , the operating member being provided at an end portion of the rotation shaft ; a first bearing supporting a first portion (Q1) of the rotation shaft ; and a second bearing supporting a second portion (Q2) of the rotation shaft , the second portion (Q2) being located nearer to the operating member than the first portion (Q1) in an axial direction of the rotation shaft , characterized in that the operating device further comprises a cylindrical member protruding from the operating member toward the first bearing and surrounding the rotation shaft , an inner circumferential surface of the second bearing is opposed to an outer circumferential surface of the cylindrical member . an operating member ; a rotation shaft , the operating member being provided at an end portion of the rotation shaft ; a first bearing supporting a first portion (Q1) of the rotation shaft ; and a second bearing supporting a second portion (Q2) of the rotation shaft , the second portion (Q2) being located nearer to the operating member than the first portion (Q1) in an axial direction of the rotation shaft , characterized in that the operating device further comprises a cylindrical member protruding from the operating member toward the first bearing and surrounding the rotation shaft , an inner circumferential surface of the second bearing is opposed to an outer circumferential surface of the cylindrical member .
A sensor package comprising: a non-conductive substrate ; at least three electrically conductive coils (110a-c) located at a first side of the non-conductive substrate ; characterized in that the sensor package furthermore comprises: an evaluation circuit located at a second side of the non-conductive substrate opposing the first side of the non-conductive substrate ; and conductive connections between the at least three electrically conductive coils (110a-c) and the evaluation circuit , wherein one of the at least three electrically conductive coils (110a-c) is configured to produce a magnetic field and the other at least two of the at least three electrically conductive coils (110a-c) are configured to receive the magnetic field and wherein the at least three electrically conductive coils do not overlap with each other. a non-conductive substrate ; at least three electrically conductive coils (110a-c) located at a first side of the non-conductive substrate ; characterized in that the sensor package furthermore comprises: an evaluation circuit located at a second side of the non-conductive substrate opposing the first side of the non-conductive substrate ; and conductive connections between the at least three electrically conductive coils (110a-c) and the evaluation circuit , wherein one of the at least three electrically conductive coils (110a-c) is configured to produce a magnetic field and the other at least two of the at least three electrically conductive coils (110a-c) are configured to receive the magnetic field and wherein the at least three electrically conductive coils do not overlap with each other. an evaluation circuit located at a second side of the non-conductive substrate opposing the first side of the non-conductive substrate ; and conductive connections between the at least three electrically conductive coils (110a-c) and the evaluation circuit , wherein one of the at least three electrically conductive coils (110a-c) is configured to produce a magnetic field and the other at least two of the at least three electrically conductive coils (110a-c) are configured to receive the magnetic field and wherein the at least three electrically conductive coils do not overlap with each other.
A method comprising: capturing, at a forward-facing camera associated with an augmented reality (AR) head-mounted display (HMD), images coming from a portion of a first screen; responsively determining that the captured images comprise a first portion of three-dimensional (3-D) content as displayed on the first screen as alternating images of a stereoscopic image sequence, the first portion of 3-D content being related to an AR presentation; detecting a frequency of the captured images by analyzing sequential images of the captured images; and shuttering, at the detected frequency, the AR HMD in synchronization with the images of the stereoscopic image sequence while also presenting left-eye imagery of a second portion of content in a portion of the AR HMD associated with the left-eye display, and right-eye imagery of the second portion of content in a portion of the AR HMD associated with the right-eye display. capturing, at a forward-facing camera associated with an augmented reality (AR) head-mounted display (HMD), images coming from a portion of a first screen; responsively determining that the captured images comprise a first portion of three-dimensional (3-D) content as displayed on the first screen as alternating images of a stereoscopic image sequence, the first portion of 3-D content being related to an AR presentation; detecting a frequency of the captured images by analyzing sequential images of the captured images; and shuttering, at the detected frequency, the AR HMD in synchronization with the images of the stereoscopic image sequence while also presenting left-eye imagery of a second portion of content in a portion of the AR HMD associated with the left-eye display, and right-eye imagery of the second portion of content in a portion of the AR HMD associated with the right-eye display.
An automatically winding type coating film transfer tool comprising: a paying-out core having a coating film transfer tape wound thereon; and a rewinding core that rewinds the coating film transfer tape after use, the paying-out core and the rewinding core being interlocked via a power transmission mechanism in a case and generating a rotational torque of the rewinding core or of the paying-out core by a frictional force generating on a sliding surface between components by using a restoring force of a resilient body , characterized in that the resilient body , a component A that comes into contact with one end of the resilient body , and a component B that comes into contact with the other end of the resilient body are configured to rotate integrally.
Drive for a window or the like, having a housing , having an electric motor , which is arranged in the housing , and having an associated circuit board with an electronic circuit arrangement, wherein the circuit board is arranged in a circuit-board holder , wherein the circuit-board holder is fitted onto the electric motor and extends between the electric motor and an end cap , wherein - the circuit-board holder is fastened mechanically on the electric motor , - the circuit board is inserted into guide grooves of the circuit-board holder , - the circuit board is introduced into the housing of the drive , characterized in that - the circuit board is pushed all the way into the circuit-board holder , a resilient crosspiece being expanded in the process, - the circuit-board holder has an accommodating ring with latching lugs , wherein the accommodating ring is pushed onto the electric motor and the latching lugs of the accommodating ring latch with latching apertures of the electric motor , - the end cap , with a connection line , is guided onto the housing and the connection line is brought into contact with the circuit board , and - the end cap is inserted, and secured, on the housing of the drive . - the circuit-board holder is fastened mechanically on the electric motor , - the circuit board is inserted into guide grooves of the circuit-board holder , - the circuit board is introduced into the housing of the drive , - the circuit board is pushed all the way into the circuit-board holder , a resilient crosspiece being expanded in the process, - the circuit-board holder has an accommodating ring with latching lugs , wherein the accommodating ring is pushed onto the electric motor and the latching lugs of the accommodating ring latch with latching apertures of the electric motor , - the end cap , with a connection line , is guided onto the housing and the connection line is brought into contact with the circuit board , and - the end cap is inserted, and secured, on the housing of the drive .
A device for a safety belt of a car and/or child seat for partially absorbing a belt force (F) occurring in cases of restraint having two deflecting elements having a first spacing from each other in the longitudinal direction of the device , and by means of which the safety belt provided for the same can be deflected when the device is used properly, such that a belt reserve of the safety belt for disposing between the two deflecting elements has a greater length in comparison with the first spacing , having a destructible element connecting the two deflecting elements to each other, and having a force transmitting means implemented such that the belt force (F) can be transferred to the destructible element so that the destructible element is destructible when a belt force threshold is exceeded and thereby the first spacing between the two deflecting elements can be expanded to a second spacing , characterized in that the force transmitting means is implemented such that the destructible element can be loaded in tension by means of the force transmitting means and the belt force is applied thereto in the longitudinal direction of the device.
A piston pump for pumping pumped material, wherein the piston pump comprises a main body , a first chamber , a second chamber and a piston which is movable relative to the main body and relative to the first chamber , wherein the first chamber comprises a first chamber opening for a filling of the first chamber with pumped material from outside the piston pump and the second chamber comprises a second chamber opening for a filling of the second chamber with pumped material from the first chamber , and wherein the piston pump comprises a pump outlet , from which pumped material is capable of exiting from the second chamber out of the piston pump , and the piston pump comprises a positive control element for the positive control of the second chamber opening by the piston , wherein in a first pump configuration the second chamber opening is configured to be impenetrable to the pumped material on account of the positive control element , and wherein in a second pump configuration the second chamber opening is configured to be penetrable by the pumped material on account of the positive control element , characterised in that the piston pump comprises a shape-stable, separately designed first chamber element which is movable relative to the main body , wherein the first chamber element comprises a first chamber opening and is capable of assuming a first first chamber configuration in which the first chamber opening is configured to be penetrable by the pumped material, as well as capable of assuming a second first chamber configuration in which the first chamber opening is configured to be impenetrable to the pumped material.
An oil-in-water nanoemulsion comprising: 1) an internal oil phase comprising 3.5 to 40% by wt. nanoemulsion composition of a lauric oil, wherein said lauric oil is an oil or oils where saturated C 12 length fatty acid (12:0) comprises 30% to 85% of the fatty acid compositions of the oil or oils; wherein there is a minimum 5% total of lauric and non-lauric triglyceride oil and 2) an external aqueous phase comprising: i. 55 to 90% by wt. nanoemulsion of water and glycerol, wherein the ratio of said glycerol to said water is 2.5:1 and higher, preferably 2.8 :1 to 10:1 or 3.0:1 to 5:1; and ii. 3 to 12% of a surfactant system comprising water soluble surfactants selected from the group consisting of anionic surfactants, amphoteric surfactants and mixtures thereof, wherein said anionic surfactant comprises 15% or more, preferably 40% or more (up to 100%, preferably 95%, although preferably it is 40% to 85%, or 50% to 85%) of the total surfactant system; wherein said composition has a turbidity of less than 100 NTU, preferably less than 80 NTU, more preferably 60 to 1 or 50 to 5, wherein said nanoemulsion is prepared by mixing ingredients forming said nanoemulsion and passing through a homogenizer with 1 pass or more at pressure of 7000 psi or less (482.6 bar or less), preferably 1500 to 5500 psi (103.4 to 379.2 bar). 1) an internal oil phase comprising 3.5 to 40% by wt. nanoemulsion composition of a lauric oil, wherein said lauric oil is an oil or oils where saturated C 12 length fatty acid (12:0) comprises 30% to 85% of the fatty acid compositions of the oil or oils; wherein there is a minimum 5% total of lauric and non-lauric triglyceride oil and 2) an external aqueous phase comprising: i. 55 to 90% by wt. nanoemulsion of water and glycerol, wherein the ratio of said glycerol to said water is 2.5:1 and higher, preferably 2.8 :1 to 10:1 or 3.0:1 to 5:1; and ii. 3 to 12% of a surfactant system comprising water soluble surfactants selected from the group consisting of anionic surfactants, amphoteric surfactants and mixtures thereof, wherein said anionic surfactant comprises 15% or more, preferably 40% or more (up to 100%, preferably 95%, although preferably it is 40% to 85%, or 50% to 85%) of the total surfactant system; i. 55 to 90% by wt. nanoemulsion of water and glycerol, wherein the ratio of said glycerol to said water is 2.5:1 and higher, preferably 2.8 :1 to 10:1 or 3.0:1 to 5:1; and ii. 3 to 12% of a surfactant system comprising water soluble surfactants selected from the group consisting of anionic surfactants, amphoteric surfactants and mixtures thereof, wherein said anionic surfactant comprises 15% or more, preferably 40% or more (up to 100%, preferably 95%, although preferably it is 40% to 85%, or 50% to 85%) of the total surfactant system;
A composition comprising a plasmin protease domain-specific monoclonal antibody or a fragment thereof that binds and that can compete with the intact antibody for binding to plasmin, for use in a therapeutic method of inhibiting plasmin activity in a subject in need thereof, the method comprising administering to the subject an effective amount of said composition, wherein the monoclonal antibody or fragment thereof comprises variable light chain CDR sequences of CDR1 as shown in SEQ ID NO:9, CDR2 as shown in SEQ ID NO:10 and CDR3 as shown in SEQ ID NO:11, and variable heavy chain CDR sequences of CDR1 as shown in SEQ ID NO:12, CDR2 as shown in SEQ ID NO:13, and CDR3 as shown in SEQ ID NO:14.
Apparatus comprising means configured for - generating a dataset specifying, for a plurality of communication channels: - a channel frequency response of a communication channel affected by an impairment, and - a channel frequency response of the communication channel non-affected by said impairment, specified by a parameter representative of a relationship between channel attenuation on a logarithm scale and square root of frequency, - training, based on the dataset, a machine learning model configured for determining, based on the channel frequency response of an impaired communication channel, the channel frequency response of the repaired communication channel non-affected by said impairment, wherein training said machine learning model comprises determining an error representative of: - a comparison between predicted channel frequency responses and expected channel frequency responses, and - a comparison between predicted values of said parameter and admissible values for said parameter, - determining, based on a channel frequency response measured on an impaired communication channel, a channel frequency response for a corresponding repaired communication channel, based on using the trained machine learning model. - generating a dataset specifying, for a plurality of communication channels: - a channel frequency response of a communication channel affected by an impairment, and - a channel frequency response of the communication channel non-affected by said impairment, specified by a parameter representative of a relationship between channel attenuation on a logarithm scale and square root of frequency, - a channel frequency response of a communication channel affected by an impairment, and - a channel frequency response of the communication channel non-affected by said impairment, specified by a parameter representative of a relationship between channel attenuation on a logarithm scale and square root of frequency, - training, based on the dataset, a machine learning model configured for determining, based on the channel frequency response of an impaired communication channel, the channel frequency response of the repaired communication channel non-affected by said impairment, wherein training said machine learning model comprises determining an error representative of: - a comparison between predicted channel frequency responses and expected channel frequency responses, and - a comparison between predicted values of said parameter and admissible values for said parameter, - a comparison between predicted channel frequency responses and expected channel frequency responses, and - a comparison between predicted values of said parameter and admissible values for said parameter, - determining, based on a channel frequency response measured on an impaired communication channel, a channel frequency response for a corresponding repaired communication channel, based on using the trained machine learning model.