mhurhangee/patent-ind-claim-en huggingface dataset:
A method of performing downlink, DL, measurement in a wireless communication system comprising a user equipment, UE, and a base station, BS, , the method comprising: determining (S1420), at the BS, a configuration of a DL subframe set on which the DL measurement is to be performed by the UE; transmitting (S1420), from the BS to the UE, the configuration of the DL subframe set; receiving (S1420), by the UE from the BS, the configuration of the DL subframe set for performing the DL measurement determined by the BS; and performing (S1430) the DL measurement on the configured DL subframe set, wherein the configuration of the DL subframe set on which the DL measurement is to be performed is determined by the BS based on almost blank subframes, ABSs, configured by a neighboring cell, on which the neighboring cell performs inter-cell interference coordination. determining (S1420), at the BS, a configuration of a DL subframe set on which the DL measurement is to be performed by the UE; transmitting (S1420), from the BS to the UE, the configuration of the DL subframe set; receiving (S1420), by the UE from the BS, the configuration of the DL subframe set for performing the DL measurement determined by the BS; and performing (S1430) the DL measurement on the configured DL subframe set, wherein the configuration of the DL subframe set on which the DL measurement is to be performed is determined by the BS based on almost blank subframes, ABSs, configured by a neighboring cell, on which the neighboring cell performs inter-cell interference coordination.
Method for processing medical image data, wherein - measurement data (D) of a to be reproduced body region of a patient are provided, - by way of a reconstruction algorithm (R) a first image volume that represents the body region is reconstructed out of the measurement data (D), - in a first localization step, a subregion that represents a partial volume of the first image volume is identified and confined within the first image volume , wherein a specific tissue structure that differs from a remaining volume of the first image volume is assigned to the subregion, - on basis of the specific tissue structure of the subregion at least one reconstruction parameter is determined that varies in comparison to the first image volume , - based on the respective changed reconstruction parameter a second image volume is reconstructed out of the measurement data (D) linked with the subregion, - in a second localization step, within at least the second image volume structure boundaries between different anatomical structures are contoured, and - structure boundaries contoured in the second image volume are transferred to the first image volume for display. - measurement data (D) of a to be reproduced body region of a patient are provided, - by way of a reconstruction algorithm (R) a first image volume that represents the body region is reconstructed out of the measurement data (D), - in a first localization step, a subregion that represents a partial volume of the first image volume is identified and confined within the first image volume , wherein a specific tissue structure that differs from a remaining volume of the first image volume is assigned to the subregion, - on basis of the specific tissue structure of the subregion at least one reconstruction parameter is determined that varies in comparison to the first image volume , - based on the respective changed reconstruction parameter a second image volume is reconstructed out of the measurement data (D) linked with the subregion, - in a second localization step, within at least the second image volume structure boundaries between different anatomical structures are contoured, and - structure boundaries contoured in the second image volume are transferred to the first image volume for display.
An air duct apparatus for a vehicle, in particular a motor vehicle, with a tubular air duct having a closed jacket wall in cross-section, and with at least one elastically deformable latching means associated with the air duct , wherein the air duct is formed in at least two parts in cross-section and for this purpose has a first duct element and a second duct element which are held sealingly against one another by the at least one latching means in such a manner that together they form the closed casing wall of the air duct , characterized in that the first and second channel elements each have, in cross-section, a bottom wall and two side walls projecting from the bottom wall at a distance from one another, each of the side walls having, on its free end face, either a receiving recess or a connecting projection (12 - 14, 25, 26), in that the side walls of at least one of the channel elements are each formed in the shape of a fork with two connecting projections (13, 14; 25, 26) aligned at least substantially parallel to one another, the two connecting projections (13, 14; 25, 26) in each case forming between them a receiving recess for receiving at least one connecting projection of a side wall of the opposite channel element , and in that at least one of the connecting projections has a laterally projecting latching lug , and in that a connecting projection , assigned to this connecting projection , of the opposite channel element has a latching recess which interacts with the latching lug and together forms the at least one latching means .
Wound dressing comprising an absorbent layer , such as a polyurethane foam layer, with an upper side which is covered at least in some areas with a protective layer , such as a semi-occlusive polyurethane film, and with an underside , which is covered preferably with an adhesive layer , such as an adhesive silicone layer, wherein at least one incision and/or at least one perforated dividing/tearing line is provided in the absorbent layer to form at least one segment (30, 32, 34, 36; 120, 122, 124, 126; 220, 222, 224, 226) separable without tools from said absorbent layer , and said absorbent layer is sealable water-tight and bacteria-proof after separation of at least one segment (30, 32, 34, 36; 120, 122, 124, 126; 220, 222, 224, 226) from the layer by means of a protruding adhesive section extending from the protective layer with simultaneous covering of the at least one incision , of the at least one perforated dividing/tearing line and/or of at least one segment (30, 32, 34, 36; 120, 122, 124, 126; 220, 222, 224, 226) remaining in the layer.
A kitchen comprising a work top arranged above a detached substructure, in which a stove with at least one hotplate, as well as a sink with at least one basin are installed, and which is adjustable in a vertical direction by means of a lifting and rotation device installed in the substructure and rotatable around a vertical axis, characterized in that the substructure is designed as a detached cabinet , the work top is arranged freely movable above the cabinet covering the said cabinet , the angle of rotation of the work top is limited to 90° and further that the work top is of a rectangular shape and in the final position turned by 90 ° relative to the cabinet protrudes beyond the cabinet .
An outdoor unit for a refrigeration cycle apparatus comprising: a fan ; a bellmouth that covers a periphery of the fan; a casing that internally houses the fan and the bellmouth , so that airflow faces upward, and that has a top end edge having a flat shape ; and a diffuser surface located below a top end edge of the casing but above a top end of the bellmouth and on the outer side relative to the top end of the bellmouth in plan view, and the diffuser surface being inclined so as to separate outward away from a rotation axis of the fan , with respect to a direction of the rotation axis heading upward, wherein the diffuser surface spreads out to the top end edge of the casing, the casing has a side surface that covers a side of the bellmouth, and wherein the outdoor unit comprises a connecting surface that extends vertically downward from a bottom end of the diffuser surface to the top end of the bellmouth , characterized in that the connecting surface extends to the top end of the bellmouth to an extent that it overlaps with a flow passage forming portion formed on a downstream side of the bellmouth , wherein the connecting surface does not contact the top end of the bellmouth ; and in that the side surface and the diffuser surface are integrally formed. a fan ; a bellmouth that covers a periphery of the fan; a casing that internally houses the fan and the bellmouth , so that airflow faces upward, and that has a top end edge having a flat shape ; and a diffuser surface located below a top end edge of the casing but above a top end of the bellmouth and on the outer side relative to the top end of the bellmouth in plan view, and the diffuser surface being inclined so as to separate outward away from a rotation axis of the fan , with respect to a direction of the rotation axis heading upward, wherein the diffuser surface spreads out to the top end edge of the casing, the casing has a side surface that covers a side of the bellmouth, and wherein the outdoor unit comprises a connecting surface that extends vertically downward from a bottom end of the diffuser surface to the top end of the bellmouth , characterized in that the connecting surface extends to the top end of the bellmouth to an extent that it overlaps with a flow passage forming portion formed on a downstream side of the bellmouth , wherein the connecting surface does not contact the top end of the bellmouth ; and in that the side surface and the diffuser surface are integrally formed.
A device (100-102) for protecting a submarine line , comprising: a tubular body adapted to receive the submarine line and to insert the tubular body in an opening in a first direction , the tubular body comprising a first end and a second end; and retention means coupled to the tubular body ; wherein the retention means are adapted to be actuated in order to prevent the movement of the tubular body in the opening in a second direction by inserting the submarine line into the tubular body , the second direction being opposite the first direction ; and wherein the retention means are also adapted to enable the movement of the tubular body in the opening at least in the second direction in case the submarine line is not inserted in the tubular body . a tubular body adapted to receive the submarine line and to insert the tubular body in an opening in a first direction , the tubular body comprising a first end and a second end; and retention means coupled to the tubular body ; wherein the retention means are adapted to be actuated in order to prevent the movement of the tubular body in the opening in a second direction by inserting the submarine line into the tubular body , the second direction being opposite the first direction ; and wherein the retention means are also adapted to enable the movement of the tubular body in the opening at least in the second direction in case the submarine line is not inserted in the tubular body .
A producing method of a grain-oriented electrical steel sheet, the method comprising: forming a preferentially-deformable portion in one end region of a steel sheet over an entire length of the steel sheet or at a part of the steel sheet in the rolling direction thereof so as to be parallel with the rolling direction of the steel sheet; coiling the steel sheet; and performing a final annealing to the steel sheet after disposing the steel sheet in a manner such that the end region becomes a lower side of the steel sheet, wherein the preferentially-deformable portion is a grain boundary sliding portion, and the grain boundary sliding portion after the final annealing is one linear crystal grain boundary or a sliding band which includes crystal grains and has a width of from 0.02 to 20 mm; wherein the preferentially-deformable portion is formed by irradiation of a laser beam, in which energy density Ed is controlled to satisfy Equation , the Ed being expressed by Equation using a laser power P (W), a diameter de (mm) in a sheet width direction(C direction) of the laser beam, and a feeding speed VL (mm/s) of the steel sheet, Ed = 4 / π × P / dc × VL 0.5 J / mm 2 ≤ Ed ≤ 5.0 J / mm 2 forming a preferentially-deformable portion in one end region of a steel sheet over an entire length of the steel sheet or at a part of the steel sheet in the rolling direction thereof so as to be parallel with the rolling direction of the steel sheet; coiling the steel sheet; and performing a final annealing to the steel sheet after disposing the steel sheet in a manner such that the end region becomes a lower side of the steel sheet, wherein the preferentially-deformable portion is a grain boundary sliding portion, and the grain boundary sliding portion after the final annealing is one linear crystal grain boundary or a sliding band which includes crystal grains and has a width of from 0.02 to 20 mm; wherein the preferentially-deformable portion is formed by irradiation of a laser beam, in which energy density Ed is controlled to satisfy Equation , the Ed being expressed by Equation using a laser power P (W), a diameter de (mm) in a sheet width direction(C direction) of the laser beam, and a feeding speed VL (mm/s) of the steel sheet, Ed = 4 / π × P / dc × VL 0.5 J / mm 2 ≤ Ed ≤ 5.0 J / mm 2
Method to form elementary nanoscale units inside an all-silicon light-to-electricity converter, characterized in the following succession of steps in the effect of forming and shaping them, whereby an ion irradiation is realized in several stages: a) an initial n-type doping profile by the so-called low-temperature thermal diffusion at T < 1000°C or by doping implantation in the homogeneously, lightly or moderately p-doped wafer b) pre conditioning of the wafer surface after the diffusion process c) providing a 50 - 200 keV ion beam irradiation leading to a buried amorphization by a self Si implantation or by P implantation, d) constitution of c-Si/a-Si heterointerfaces by the thermal annealing cycle at 500°C, e) activation of elementary nanoscale units f) constitution of metamaterial nanolayers by the thermal annealing cycle at 350 - 450°C, g) amorphization to have grains, whereby these amorphized grains are shaped and spread within an emitter by the masking or focalization of the implantation ion beam and by multienergy implantation process and h) device final processing steps, namely coating, electronic passivation or metallizations.
A mini tunnel system for an asparagus bed, comprising a foil element which is held spaced from the asparagus bed by means of a multitude of holder elements arranged in the longitudinal direction (L) of the asparagus bed, wherein each of the holder elements comprises a fixing part , which is fixed to a ground surface near or on the asparagus bed, and wherein each of the holder elements comprises a foil supporting part which is in contact with the foil element , characterised in that the foil supporting part and the foil element that is in contact therewith extend in the longitudinal direction (L) of the asparagus bed substantially at an angle different from 0° relative to the ground surface , such that the parts of the foil element and the foil supporting part that are in contact with each other extend substantially obliquely relative to the plane formed by the ground surface.
An apparatus for monitoring the separation of lime particles from a water stream, comprising a water inlet , via which water that contains lime particles is fed, a separation chamber , within which the lime particles are separated from the water by centrifugal forces, and a water outlet , via which the water from which the lime particles have been separated is discharged, a collection chamber being provided for receiving the lime particles separated from the water and a sensor system being provided at the collection chamber , by means of which sensor system the separation process of the lime particles from the water stream can be monitored, wherein the sensor system has an arrangement comprising a transmitter (6.1) and a receiver (6.2), the transmitter (6.1) being configured to supply a signal emitted by the transmitter through the collection chamber to the receiver (6.2), wherein the separator comprises an evaluation and control unit , wherein the sensor system is coupled to the evaluation and control unit , by means of which the concentration of lime particles in the collection chamber can be analyzed on the basis of the measuring signal measured at the receiver (6.2), wherein the separation chamber is designed to taper downwards and wherein the collection chamber is arranged below the separation chamber .
An apparatus comprising: a processor; a memory that stores code executable by the processor to: receive speech input from a user of an electronic device; convert the speech to text and predict a possible next character; receive a gesture from the user; associate the received gesture with a character, and input the character into the text, characterized in that a combined confidence score is used to associate the received gesture with a character, wherein the combined confidence score is based on a character confidence score and a gesture confidence score, and wherein the gesture confidence score is a measure of how close the gesture is to a stored gesture associated with a character and the character confidence score is the prediction of a next character after the text. a processor; a memory that stores code executable by the processor to: receive speech input from a user of an electronic device; convert the speech to text and predict a possible next character; receive a gesture from the user; associate the received gesture with a character, and input the character into the text, characterized in that a combined confidence score is used to associate the received gesture with a character, wherein the combined confidence score is based on a character confidence score and a gesture confidence score, and wherein the gesture confidence score is a measure of how close the gesture is to a stored gesture associated with a character and the character confidence score is the prediction of a next character after the text. receive speech input from a user of an electronic device; convert the speech to text and predict a possible next character; receive a gesture from the user; associate the received gesture with a character, and input the character into the text, characterized in that a combined confidence score is used to associate the received gesture with a character, wherein the combined confidence score is based on a character confidence score and a gesture confidence score, and wherein the gesture confidence score is a measure of how close the gesture is to a stored gesture associated with a character and the character confidence score is the prediction of a next character after the text.
A compound of formula wherein HetAr is a five or six membered hetaryl group, containing one, two or three heteroatoms, selected from N, O or S; R 1 is hydrogen, C 1 -C 7 alkyl, C 1 -C 7 alkyl substituted by halogen, halogen, or C 1 -C 7 alkoxy; R 2 is C 1 -C 7 alkyl substituted by halogen, -CH 2 -C 3-6 -cycloalkyl, substituted by one or two substituents, selected from C 1 -C 7 alkyl substituted by halogen or halogen, or is CH=CHCF 3 ; R 3 is hydrogen, C 1 -C 7 alkyl substituted by halogen, C 1 -C 7 alkyl, halogen, C 3-6 -cycloalkyl or C 1 -C 7 alkyl substituted by hydroxy; n is 1 or 2; for n = 2, R 1 can be independent to each other; Y is CH or N; or a pharmaceutically active acid addition salt thereof, a racemic mixture or its corresponding enantiomer and/or optical isomer and/or stereoisomer thereof. HetAr is a five or six membered hetaryl group, containing one, two or three heteroatoms, selected from N, O or S; R 1 is hydrogen, C 1 -C 7 alkyl, C 1 -C 7 alkyl substituted by halogen, halogen, or C 1 -C 7 alkoxy; R 2 is C 1 -C 7 alkyl substituted by halogen, -CH 2 -C 3-6 -cycloalkyl, substituted by one or two substituents, selected from C 1 -C 7 alkyl substituted by halogen or halogen, or is CH=CHCF 3 ; R 3 is hydrogen, C 1 -C 7 alkyl substituted by halogen, C 1 -C 7 alkyl, halogen, C 3-6 -cycloalkyl or C 1 -C 7 alkyl substituted by hydroxy; n is 1 or 2; for n = 2, R 1 can be independent to each other; Y is CH or N;
Rubber composition based on a reinforcing filler and on an elastomer comprising units of a 1,3-diene monomer and bearing carbonate functions, each present in a 1,3-dioxolan-2-one ring.
A phase current detection apparatus which comprises a shunt resistor inserted in a DC link for detecting a motor current, current detection circuit, and a micro-computer receiving a detection current output as an input, and which is provided in a motor driving apparatus in which outputs from PWM inverter are supplied to the motor so as to drive the motor , characterised in that signal ground of the current detection circuit and ground of the micro-computer are connected to one another at one side of the shunt resistor.
A computer-implemented method for predicting collisions between a vehicle and one or more objects in the surroundings of the vehicle , comprising: a) acquiring (S1) information about one or more moving objects in the surroundings of the vehicle , the information comprising at least a range rate and a heading of each of the one or more objects in the surroundings of the vehicle ; b) calculating (S2) one or more possible vehicle trajectories of the vehicle ; c) for each object , calculating (S3) a plurality of possible object trajectories of the object from the range rate of the object , the heading of the object and a possible turn and acceleration of the object , the possible turn and/or acceleration values differing for each possible object trajectory the plurality of possible object trajectories representing the spatial bounds of possible object trajectories for a predetermined first confidence interval for the values, d) for each combination of calculated vehicle trajectory and object trajectory , performing (S4) a collision calculation to calculate whether the vehicle and object will be closer than a predetermined minimum distance to each other; and e) determining (S5) if, for one or more of the objects , at least a predetermined number of collision calculations indicate the vehicle and object will be closer than the predetermined minimum distance to each other. a) acquiring (S1) information about one or more moving objects in the surroundings of the vehicle , the information comprising at least a range rate and a heading of each of the one or more objects in the surroundings of the vehicle ; b) calculating (S2) one or more possible vehicle trajectories of the vehicle ; c) for each object , calculating (S3) a plurality of possible object trajectories of the object from the range rate of the object , the heading of the object and a possible turn and acceleration of the object , the possible turn and/or acceleration values differing for each possible object trajectory the plurality of possible object trajectories representing the spatial bounds of possible object trajectories for a predetermined first confidence interval for the values, d) for each combination of calculated vehicle trajectory and object trajectory , performing (S4) a collision calculation to calculate whether the vehicle and object will be closer than a predetermined minimum distance to each other; and e) determining (S5) if, for one or more of the objects , at least a predetermined number of collision calculations indicate the vehicle and object will be closer than the predetermined minimum distance to each other.