mhurhangee/patent-ind-claim-en huggingface dataset:
A method of connecting parts relative to one another, the method comprising the steps of - Providing a first part , the first part comprising a first opening; - Providing a second part , the second part comprising thermoplastic material in a solid state, wherein the second part is structured to be capable of connecting a further part to the first part ; - Providing the further part to be connected to the first part , the further part comprising a second opening; - Arranging the first part , the second part and the further part relative to one another, so that the second part reaches into the first and second opening, while a cavity with an undercut and a well-defined cavity volume is defined, wherein the first opening is open towards a proximal side and wherein the second part is inserted from the proximal side; - Causing energy to act on the second part until at least a part of the thermoplastic material is caused to liquefy and to fill the cavity; and - Causing the thermoplastic material to re-solidify, thereby anchoring the second part in the first part , characterized in that the second part is pressed towards a distal side during the step of causing energy to act on the second part until the further part is clamped to the first part by the second part , and in that a head (2.4) or flange portion of the second part rests against a rim of the second opening after the step of causing the thermoplastic material to re-solidify. - Providing a first part , the first part comprising a first opening; - Providing a second part , the second part comprising thermoplastic material in a solid state, wherein the second part is structured to be capable of connecting a further part to the first part ; - Providing the further part to be connected to the first part , the further part comprising a second opening; - Arranging the first part , the second part and the further part relative to one another, so that the second part reaches into the first and second opening, while a cavity with an undercut and a well-defined cavity volume is defined, wherein the first opening is open towards a proximal side and wherein the second part is inserted from the proximal side; - Causing energy to act on the second part until at least a part of the thermoplastic material is caused to liquefy and to fill the cavity; and - Causing the thermoplastic material to re-solidify, thereby anchoring the second part in the first part ,
A compound of the following formula ; wherein in the formula , R 1 to R 8 are each a hydrogen atom, aliphatic hydrocarbon group, alkoxy group, alkylthio group, aromatic group, heterocyclic group, a halogen atom, hydroxyl group, mercapto group, nitro group, substituted amino group in which one or two alkyl groups or aromatic groups are substituted for one or two hydrogen atoms of the amino group, unsubstituted amino group, cyano group, sulfo group, or acyl group, provided that at least one of R 1 to R 4 is the group or the atom other than the hydrogen atom, and at least one of R 5 to R 8 is the group or the atom other than the hydrogen atom, wherein one of X 1 to X 3 is a sulfur atom, and the remaining two of X 1 to X 3 are carbon atoms having one R 0 , wherein one of X 4 to X 6 is a sulfur atom, the remaining two of X 4 to X 6 are carbon atoms having one R 0 , wherein R 0 is each independently a hydrogen atom, aliphatic hydrocarbon group, alkoxy group, alkylthio group, aromatic group, heterocyclic group, a halogen atom, hydroxyl group, mercapto group, nitro group, substituted amino group in which one or two alkyl groups or aromatic groups are substituted for one or two hydrogen atoms of the amino group, unsubstituted amino group, cyano group, sulfo group, or acyl group, and wherein when X 1 and X 2 are each R 0 C, X 2 and X 3 are each R 0 C, X 4 and X 5 are each R 0 C, or X 5 and X 6 are each R 0 C, the adj acent R 0 s may be bonded to each other to form a cyclic structure. wherein in the formula , R 1 to R 8 are each a hydrogen atom, aliphatic hydrocarbon group, alkoxy group, alkylthio group, aromatic group, heterocyclic group, a halogen atom, hydroxyl group, mercapto group, nitro group, substituted amino group in which one or two alkyl groups or aromatic groups are substituted for one or two hydrogen atoms of the amino group, unsubstituted amino group, cyano group, sulfo group, or acyl group, provided that at least one of R 1 to R 4 is the group or the atom other than the hydrogen atom, and at least one of R 5 to R 8 is the group or the atom other than the hydrogen atom, wherein one of X 1 to X 3 is a sulfur atom, and the remaining two of X 1 to X 3 are carbon atoms having one R 0 , wherein one of X 4 to X 6 is a sulfur atom, the remaining two of X 4 to X 6 are carbon atoms having one R 0 , wherein R 0 is each independently a hydrogen atom, aliphatic hydrocarbon group, alkoxy group, alkylthio group, aromatic group, heterocyclic group, a halogen atom, hydroxyl group, mercapto group, nitro group, substituted amino group in which one or two alkyl groups or aromatic groups are substituted for one or two hydrogen atoms of the amino group, unsubstituted amino group, cyano group, sulfo group, or acyl group, and wherein when X 1 and X 2 are each R 0 C, X 2 and X 3 are each R 0 C, X 4 and X 5 are each R 0 C, or X 5 and X 6 are each R 0 C, the adj acent R 0 s may be bonded to each other to form a cyclic structure.
Method for processing an Ethernet message comprising an incorrect timestamp , in which the following steps are performed: - a control unit receiving an Ethernet message comprising a timestamp ; - determining a time difference between a global time of the timestamp and a local time of a clock of the control unit ; and - identifying the timestamp of the Ethernet message as incorrect, wherein the global time of the timestamp is replaced by the local time of the clock of the control unit if the timestamp is identified as incorrect, characterized in that the global time of a timestamp of at least one further Ethernet message subsequent to the Ethernet message is replaced by the local time of the clock of the control unit if the timestamp of the Ethernet message is incorrect. - a control unit receiving an Ethernet message comprising a timestamp ; - determining a time difference between a global time of the timestamp and a local time of a clock of the control unit ; and - identifying the timestamp of the Ethernet message as incorrect, wherein the global time of the timestamp is replaced by the local time of the clock of the control unit if the timestamp is identified as incorrect, characterized in that the global time of a timestamp of at least one further Ethernet message subsequent to the Ethernet message is replaced by the local time of the clock of the control unit if the timestamp of the Ethernet message is incorrect.
A flow-through protective system of a hydrogen fuel receiver comprising a line ( H2 ) for carrying hydrogen fuel, secured with a protective valve ( VZ ), wherein on the line ( H2 ) a branching unit ( T1 ) is provided, for conveying a part of the hydrogen fuel to a sensory unit ( K1 ), and a control unit ( C1 ) receiving on an input a signal from the sensory unit ( K1 ) and having an output connected to a control input of the protective valve ( VZ ), characterized in that the sensory unit ( K1 ) comprises a measuring chamber with a subterahertz semiconductor sensor with an operating band falling within the range of 100 GHz to 1000 GHz and at least one sensor chosen from the group comprising: terahertz and photonic spectrometer, it has a first valve ( V1 ) between the branching unit ( T1 ) and the sensory unit ( K1 ), and an outlet of the first valve ( V1 ) is connected to an inlet of the measuring chamber of the sensory unit ( K1 ) and an outlet of the measuring chamber is secured with a second controllable valve ( V2 ), to which a pump ( P1 ) is connected wherein the control unit ( C1 ) is adapted to trigger measurement in sequential mode so that the system operates in a cycle, in which, for measurement, the chamber of the sensory unit K1 is closed from the both sides by the first valve V1 and second valve V2 and filled with hydrogen under measuring pressure and after measurement the hydrogen is pumped out by means of the pump P1 , wherein the measurement with a subterahertz semiconductor sensor in every cycle is triggered the last. a line ( H2 ) for carrying hydrogen fuel, secured with a protective valve ( VZ ), wherein on the line ( H2 ) a branching unit ( T1 ) is provided, for conveying a part of the hydrogen fuel to a sensory unit ( K1 ), and a control unit ( C1 ) receiving on an input a signal from the sensory unit ( K1 ) and having an output connected to a control input of the protective valve ( VZ ), characterized in that the sensory unit ( K1 ) comprises a measuring chamber with a subterahertz semiconductor sensor with an operating band falling within the range of 100 GHz to 1000 GHz and at least one sensor chosen from the group comprising: terahertz and photonic spectrometer, it has a first valve ( V1 ) between the branching unit ( T1 ) and the sensory unit ( K1 ), and an outlet of the first valve ( V1 ) is connected to an inlet of the measuring chamber of the sensory unit ( K1 ) and an outlet of the measuring chamber is secured with a second controllable valve ( V2 ), to which a pump ( P1 ) is connected wherein the control unit ( C1 ) is adapted to trigger measurement in sequential mode so that the system operates in a cycle, in which, for measurement, the chamber of the sensory unit K1 is closed from the both sides by the first valve V1 and second valve V2 and filled with hydrogen under measuring pressure and after measurement the hydrogen is pumped out by means of the pump P1 , wherein the measurement with a subterahertz semiconductor sensor in every cycle is triggered the last.
Dishwasher , in particular household dishwasher, having a dishwasher cavity forming a receiving chamber for at least one washing basket , wherein items to be cleaned can be stored in the at least one washing basket and can be applied with water (FW) and/or washing liquor (S) by way of at least one spray device (5; 6) assigned to the respective washing basket , wherein the water (FW) and/or the washing liquor can be fed to the spray device (5; 6) by way of at least one pipeline (10; 16), wherein the at least one pipeline (10; 16) is an inlet pipe which is provided with two outlets (12; 13) for supplying two spray devices (5; 6) and which runs essentially horizontally and is divided across its axial course and composed of a number of consecutive parts (14; 15), characterised in that the consecutive parts (14; 15) are secured to one another against an azimuthal relative movement in the form of a rotation, wherein a narrow web which spreads out with a radial component is provided on one of the parts (14; 15) and an inlet channel receiving the web in the connecting position is provided on the other part (15; 14).
A method of generating an optical coherence tomography, OCT, image performed by an OCT system , the method comprising: obtaining an interference signal for a reference surface; generating a first image comprising a three-dimensional image of the reference surface from the interference signal for the reference surface; selecting a first pixel set from pixels on an x-y plane of the three-dimensional image based on strength of the interference signal corresponding to each pixel; extracting for the first pixel set, differences in relative depth position between a peak point in the three-dimensional image of the reference surface and points other than the peak point in the three-dimensional image of the reference surface; calculating a coherence gate curvature, CGC, profile by using the differences extracted for the first pixel set; and generating a CGC fitting curve from the CGC profile. obtaining an interference signal for a reference surface; generating a first image comprising a three-dimensional image of the reference surface from the interference signal for the reference surface; selecting a first pixel set from pixels on an x-y plane of the three-dimensional image based on strength of the interference signal corresponding to each pixel; extracting for the first pixel set, differences in relative depth position between a peak point in the three-dimensional image of the reference surface and points other than the peak point in the three-dimensional image of the reference surface; calculating a coherence gate curvature, CGC, profile by using the differences extracted for the first pixel set; and generating a CGC fitting curve from the CGC profile.
Baler for forming compressed bales , wherein the baler comprises a cuboidal compression chamber in which a compression plunger with a compression surface facing towards the compressed bale is accommodated in a movable manner, wherein the baler has a bale-ejection device , and the bale-ejection device has at least one discharge pusher which can selectively assume at least one position in which it protrudes beyond the compression surface , and the discharge pusher is mounted at one end on the compression plunger , wherein the discharge pusher is movable together with the compression plunger in such a way that, for achieving the greatest possible travel, the compression plunger assumes a position in which it is extended in relation to the compression chamber when the discharge pusher protrudes beyond the compression surface, characterized in that the discharge pusher is arranged in the compression plunger or a compression body of the compression plunger .
A method for implementing data mapping and transmission, comprising: segmenting data to be transmitted into N code blocks, and dividing the N code blocks into M code block groups, CBGs, wherein a difference between numbers of code blocks in any two CBGs is less than or equal to a preset value, N and M are positive integers, N is greater than or equal to M, and M is greater than or equal to 2; and mapping the M CBGs to at least one transmission unit for bearing and transmission, characterized in that the M CBGs comprise a first CBG and a second CBG, and a number of code blocks in the first CBG is greater than a number of code blocks in the second CBG; and wherein the at least one transmission unit comprises a first physical resource corresponding to the first CBG and a second physical resource corresponding to the second CBG, and the first physical resource is ahead of the second physical resource in time domain. segmenting data to be transmitted into N code blocks, and dividing the N code blocks into M code block groups, CBGs, wherein a difference between numbers of code blocks in any two CBGs is less than or equal to a preset value, N and M are positive integers, N is greater than or equal to M, and M is greater than or equal to 2; and mapping the M CBGs to at least one transmission unit for bearing and transmission, characterized in that the M CBGs comprise a first CBG and a second CBG, and a number of code blocks in the first CBG is greater than a number of code blocks in the second CBG; and wherein the at least one transmission unit comprises a first physical resource corresponding to the first CBG and a second physical resource corresponding to the second CBG, and the first physical resource is ahead of the second physical resource in time domain.
Method of evaluating a time-interval between two excitations, wherein - a first excitation is applied to an excitable semiconductor material for changing this material to an excited amorphous state, - the excitability of the excitable semiconductor material in the excited amorphous state decreases with time, resulting in a voltage threshold value rising with time which marks the transition between low conductivity at low voltages and high conductivity at high voltages, - a second excitation is applied to the excitable semiconductor material in the excited amorphous state, the second excitation being selected such that a temporary change of the excitable semiconductor material from a state with lower electrical conductivity to a state with higher electrical conductivity only takes place if a value for the time-interval between the first and the second excitation is not exceeded, - a temporary change from a state with lower electrical conductivity to a state with higher electrical conductivity in dependence on alteration of excitability of the excitable semiconductor material in the excited amorphous state is triggered by the second excitation, - where evaluation of the time-interval between two excitations takes place due to the fact that the probability of triggering a change with a second excitation decreases over time in accordance with the electrical excitability decreasing over time. - a first excitation is applied to an excitable semiconductor material for changing this material to an excited amorphous state, - the excitability of the excitable semiconductor material in the excited amorphous state decreases with time, resulting in a voltage threshold value rising with time which marks the transition between low conductivity at low voltages and high conductivity at high voltages, - a second excitation is applied to the excitable semiconductor material in the excited amorphous state, the second excitation being selected such that a temporary change of the excitable semiconductor material from a state with lower electrical conductivity to a state with higher electrical conductivity only takes place if a value for the time-interval between the first and the second excitation is not exceeded, - a temporary change from a state with lower electrical conductivity to a state with higher electrical conductivity in dependence on alteration of excitability of the excitable semiconductor material in the excited amorphous state is triggered by the second excitation, - where evaluation of the time-interval between two excitations takes place due to the fact that the probability of triggering a change with a second excitation decreases over time in accordance with the electrical excitability decreasing over time.
A method, comprising: arranging at least one semiconductor chip on a die pad in a substrate , the substrate comprising at least one electrically conductive pad adjacent to the die pad , positioning at least one electrically conductive clip in a bridge-like position between the at least one semiconductor chip and the at least one electrically conductive pad , wherein, in said bridge-like position, the at least one electrically conductive clip has coupling surfaces facing towards the at least one semiconductor chip and the at least one electrically conductive pad , and soldering the at least one electrically conductive clip in said bridge-like position to the at least one semiconductor chip and to the at least one electrically conductive pad to provide electrical coupling therebetween, wherein soldering is via soldering material at said coupling surfaces, characterised in that the method comprises, prior to said soldering, immobilizing (LB, G) the at least one electrically conductive clip in said bridge-like position via welding (LB) or gluing (G) to at least one of the electrically conductive pads and the at least one semiconductor chip . arranging at least one semiconductor chip on a die pad in a substrate , the substrate comprising at least one electrically conductive pad adjacent to the die pad , positioning at least one electrically conductive clip in a bridge-like position between the at least one semiconductor chip and the at least one electrically conductive pad , wherein, in said bridge-like position, the at least one electrically conductive clip has coupling surfaces facing towards the at least one semiconductor chip and the at least one electrically conductive pad , and soldering the at least one electrically conductive clip in said bridge-like position to the at least one semiconductor chip and to the at least one electrically conductive pad to provide electrical coupling therebetween, wherein soldering is via soldering material at said coupling surfaces, characterised in that the method comprises, prior to said soldering, immobilizing (LB, G) the at least one electrically conductive clip in said bridge-like position via welding (LB) or gluing (G) to at least one of the electrically conductive pads and the at least one semiconductor chip .
A polyethylene homopolymer comprising the following properties: a) a melt index from 1.0 to 3.5 dg/min; b) a Mw(abs) versus 12 relationship: Mw(abs) ≥ A + B(I2), where A = 3.20 x 10 5 g/mole, and B = -8.00 x 10 3 (g/mole)/(dg/min); c) a Mw(abs) versus I2 relationship: Mw(abs) ≤ C + D(I2), where C = 3.90 x 10 5 g/mole, and D = -8.00 x 10 3 (g/mole)/(dg/min). a) a melt index from 1.0 to 3.5 dg/min; b) a Mw(abs) versus 12 relationship: Mw(abs) ≥ A + B(I2), where A = 3.20 x 10 5 g/mole, and B = -8.00 x 10 3 (g/mole)/(dg/min); c) a Mw(abs) versus I2 relationship: Mw(abs) ≤ C + D(I2), where C = 3.90 x 10 5 g/mole, and D = -8.00 x 10 3 (g/mole)/(dg/min).
Method for detecting an object which can be described by a plurality of predetermined features , the method including: (a) flying along the object and detecting a plurality of sections of the object with at least one recording unit , wherein each of the sections is detected a plurality of times from different positions of the recording unit in order to generate a set of images, wherein position and location information of the recording unit is associated with each image; and (b) detecting features in the sets of images; and (c) determining the positions and/or locations of the features using the position and location information of the images containing the features; wherein the recording unit is a drone or a measuring device in conjunction with a drone, configured to generate the sets of images; and associate the position and location information of the recording unit with each image at the time of recording the respective image. (a) flying along the object and detecting a plurality of sections of the object with at least one recording unit , wherein each of the sections is detected a plurality of times from different positions of the recording unit in order to generate a set of images, wherein position and location information of the recording unit is associated with each image; and (b) detecting features in the sets of images; and (c) determining the positions and/or locations of the features using the position and location information of the images containing the features; wherein the recording unit is a drone or a measuring device in conjunction with a drone, configured to generate the sets of images; and associate the position and location information of the recording unit with each image at the time of recording the respective image.