mhurhangee/ep-ind-claims huggingface dataset:
A terminal comprising: a receiving section configured to receive at least one of first configuration information about a bandwidth part, BWP,-specific reserved resource and second configuration information about a cell-specific reserved resource; and characterized by, a control section configured to control receiving processes for Physical Downlink Shared Channel, PDSCH, under an assumption that the PDSCH is not allocated in a reserved resource corresponding to the at least one of the first configuration information and the second configuration information, wherein information related to the reserved resource is determined based on subcarrier spacing of BWP configured, and wherein the control section determines the reserved resource is one of the following: a whole of a given BWP in a given period; a part of the given BWP in the period; and not included in the given BWP in the period. a receiving section configured to receive at least one of first configuration information about a bandwidth part, BWP,-specific reserved resource and second configuration information about a cell-specific reserved resource; and characterized by, a control section configured to control receiving processes for Physical Downlink Shared Channel, PDSCH, under an assumption that the PDSCH is not allocated in a reserved resource corresponding to the at least one of the first configuration information and the second configuration information, wherein information related to the reserved resource is determined based on subcarrier spacing of BWP configured, and wherein the control section determines the reserved resource is one of the following: a whole of a given BWP in a given period; a part of the given BWP in the period; and not included in the given BWP in the period. a whole of a given BWP in a given period; a part of the given BWP in the period; and not included in the given BWP in the period.
A method implemented by a first radio access technology, RAT, network node, for spectrum sharing with a second RAT network node, the method comprising: determining whether an estimated power for first RAT transmission on at least one resource element, RE, in a spectrum shared by the first RAT network node and second RAT network node allows for an estimated mean power for the shared spectrum to meet a predefined criterion; and performing at least one action based at least in part on the determination whether the estimated mean power for the shared spectrum meets the predefined criterion, wherein: - the at least one action is configured to allow for a cell-specific reference signals, CRS, gain for a RE carrying CRS to be above a threshold; and - the at least one action includes reducing a power per resource element, RE, over a first plurality of REs associated with the first RAT network node; and a power per RE over a second plurality of REs associated with the second RAT network node being reduced. determining whether an estimated power for first RAT transmission on at least one resource element, RE, in a spectrum shared by the first RAT network node and second RAT network node allows for an estimated mean power for the shared spectrum to meet a predefined criterion; and performing at least one action based at least in part on the determination whether the estimated mean power for the shared spectrum meets the predefined criterion, wherein: - the at least one action is configured to allow for a cell-specific reference signals, CRS, gain for a RE carrying CRS to be above a threshold; and - the at least one action includes reducing a power per resource element, RE, over a first plurality of REs associated with the first RAT network node; and a power per RE over a second plurality of REs associated with the second RAT network node being reduced. - the at least one action is configured to allow for a cell-specific reference signals, CRS, gain for a RE carrying CRS to be above a threshold; and - the at least one action includes reducing a power per resource element, RE, over a first plurality of REs associated with the first RAT network node; and a power per RE over a second plurality of REs associated with the second RAT network node being reduced.
Bulk goods aligner for a bulk goods feeding assembly, comprising - an inlet for bulk goods, - a first outlet for the bulk goods which is at a spacing from the inlet in a pouring direction, wherein a bulk volume is defined along the pouring direction between the first outlet and the inlet, - at least two further outlets (28, 29) for the bulk goods, and - a bulk goods slide (32, 33) for each further outlet (28, 29), which bulk goods slides are each displaceable independently from one another between a passive position releasing the bulk volume and an active position, - wherein, in the respective active position, each bulk goods slide (32, 33) projects at least in part into the bulk volume and extends up to the respective further outlet (28, 29). - an inlet for bulk goods, - a first outlet for the bulk goods which is at a spacing from the inlet in a pouring direction, wherein a bulk volume is defined along the pouring direction between the first outlet and the inlet, - at least two further outlets (28, 29) for the bulk goods, and - a bulk goods slide (32, 33) for each further outlet (28, 29), which bulk goods slides are each displaceable independently from one another between a passive position releasing the bulk volume and an active position, - wherein, in the respective active position, each bulk goods slide (32, 33) projects at least in part into the bulk volume and extends up to the respective further outlet (28, 29).
An anhydrous polymorphic crystalline form (Form VIII) of the compound according to formula Ib: with an x-ray powder diffraction trace measured by using a sealed copper Kα 1 irradiation source and having a D-spacing as shown: D-space I/I ο x 100 D-space I/I o x 100 7.2 65.6 4.1 45.2 6.7 34.3 3.9 100.0 6.1 45.3 3.4 43.4 4.7 53.9
An apparatus comprising: - a processing system configured to receive a rotation signal indicative of rotational movement of a chest of an individual, the rotation signal being at least partly indicative of cardiac rotation, wherein the processing system is configured to: - form one or more indicator quantities each being derivable from an energy spectral density based on one or more samples of the rotation signal each having a temporal length, and - form an indicator of cardiac condition on the basis of the one or more indicator quantities in accordance with a predetermined rule, wherein the processing system is configured to compute an estimate of energy of the rotation signal on a computation time period, the estimate of the energy representing one of the indicator quantities and being defined according to the following: E = ∫ T ω t 2 dt = ∫ B ESD f df, where E is the estimate of the energy, ω(t) is the rotation signal, T is the computation time period, t is time, ESD(f) is the energy spectral density, B is a frequency area of the energy spectral density, and f is frequency. - a processing system configured to receive a rotation signal indicative of rotational movement of a chest of an individual, the rotation signal being at least partly indicative of cardiac rotation, wherein the processing system is configured to: - form one or more indicator quantities each being derivable from an energy spectral density based on one or more samples of the rotation signal each having a temporal length, and - form an indicator of cardiac condition on the basis of the one or more indicator quantities in accordance with a predetermined rule, - form one or more indicator quantities each being derivable from an energy spectral density based on one or more samples of the rotation signal each having a temporal length, and - form an indicator of cardiac condition on the basis of the one or more indicator quantities in accordance with a predetermined rule, wherein the processing system is configured to compute an estimate of energy of the rotation signal on a computation time period, the estimate of the energy representing one of the indicator quantities and being defined according to the following: E = ∫ T ω t 2 dt = ∫ B ESD f df, where E is the estimate of the energy, ω(t) is the rotation signal, T is the computation time period, t is time, ESD(f) is the energy spectral density, B is a frequency area of the energy spectral density, and f is frequency.
A kiln with a combustion chamber, in which at least one burner device for feeding combustion gas-air mixture into the combustion chamber is arranged, wherein the burner device for feeding combustion gas-air mixture into the combustion chamber of a kiln comprises at least one burner tube with tube outlets for the combustion gas-air mixture, which extends between two wall sections (120a, 120b) of the combustion chamber, characterized in that at least one burner lance with at least one lance outlet for the combustion gas-air mixture is provided, which extends through a wall section into the edge region of the combustion chamber.
A device for lubricating a railway switch, the device being remotely controllable and configured for moving on a railway track, wherein the device comprises a container for lubricant and at least one nozzle configured for lubricating the railway switch with the lubricant, characterised in that the at least one nozzle is further configured for providing a variable lubrication width.
Harvester header support for supporting a header of an agricultural harvester, which harvester header support comprises: - a frame, which frame comprises a harvester interface, which is connectable to an agricultural harvester, - a first support wheel, which is rotatable about a first support wheel axis, which first support wheel is mounted on a first support wheel shaft, - a coupling device, which is adapted to couple the first support wheel to the frame, which coupling device comprises: - a first coupling element, which is connected to the first support wheel shaft, and - a second coupling element, which is connected to the frame and to the first coupling element, the first and second coupling element (10, 11) being pivotable relative to each other over a pivot angle and about a first pivot axis, characterised in that: - the first pivot axis extends at a distance from and substantially parallel to the first support wheel axis, the coupling device has a forward travel mode and a rearward travel mode, in which forward travel mode the first coupling element is in a forward travel position relative to the second coupling element, and in which rearward travel mode the first coupling element is in a rearward travel position relative to the second coupling element, wherein the first coupling element is moveable from the forward travel position to the rearward travel position and/or vice versa by pivoting the first coupling element relative to the second coupling element about the first pivot axis. - a frame, which frame comprises a harvester interface, which is connectable to an agricultural harvester, - a first support wheel, which is rotatable about a first support wheel axis, which first support wheel is mounted on a first support wheel shaft, - a coupling device, which is adapted to couple the first support wheel to the frame, which coupling device comprises: - a first coupling element, which is connected to the first support wheel shaft, and - a second coupling element, which is connected to the frame and to the first coupling element, - the first pivot axis extends at a distance from and substantially parallel to the first support wheel axis, the coupling device has a forward travel mode and a rearward travel mode, in which forward travel mode the first coupling element is in a forward travel position relative to the second coupling element, and in which rearward travel mode the first coupling element is in a rearward travel position relative to the second coupling element, wherein the first coupling element is moveable from the forward travel position to the rearward travel position and/or vice versa by pivoting the first coupling element relative to the second coupling element about the first pivot axis.
An optical imaging device for reading optical codes; the device comprising: an area sensor comprising a first plurality of lines of pixels, the area sensor being configured to sense with only a second plurality of lines of pixels, the second plurality of lines of pixels being arranged in a predetermined position of the area sensor and including fewer lines of pixels than the number of lines of pixels in the first plurality of lines of pixels; a lens, the lens having an optical axis forming a portion of an optical imaging axis of the optical imaging device; an exit window angled to the optical imaging axis; and a reflective surface disposed along the optical imaging axis between the lens and the exit window, the reflective surface being configured to fold the imaging axis, characterized in that the reflective surface is tilted at an angle of at least 45.5 degrees with respect to the optical axis of the lens. an area sensor comprising a first plurality of lines of pixels, the area sensor being configured to sense with only a second plurality of lines of pixels, the second plurality of lines of pixels being arranged in a predetermined position of the area sensor and including fewer lines of pixels than the number of lines of pixels in the first plurality of lines of pixels; a lens, the lens having an optical axis forming a portion of an optical imaging axis of the optical imaging device; an exit window angled to the optical imaging axis; and a reflective surface disposed along the optical imaging axis between the lens and the exit window, the reflective surface being configured to fold the imaging axis, characterized in that the reflective surface is tilted at an angle of at least 45.5 degrees with respect to the optical axis of the lens.
A linear scale that is used for displacement measurement, comprising: a scale board that is made of low expansion ceramics; a graduation unit that is fixed to an upper surface of the scale board, the graduation unit being read at the time of measurement; and an attachment unit that attaches the scale board to a base member; characterized in that the scale board has a slit (141, 142, 143, 144) that is formed near the attachment unit. a scale board that is made of low expansion ceramics; a graduation unit that is fixed to an upper surface of the scale board, the graduation unit being read at the time of measurement; and an attachment unit that attaches the scale board to a base member; characterized in that the scale board has a slit (141, 142, 143, 144) that is formed near the attachment unit.
A tubular slip device for supporting a tubular member, comprising: a plurality of slip segments (102, 102-1, 102-2, 102-3, 1002) connected to form a slip opening adapted for the tubular member, each slip segment comprising a slip body (104, 104-1, 1004), the slip body comprising: a top end (122, 1022) and a bottom end (124, 1024); an outer face (106, 1006) having an arcuate shape; and an inner face (110, 1010) having an arcuate shape at least partially surrounding the slip opening; and the device further comprises a plurality of inserts (112, 1012-1, 1012-2, 1012-3) attached to and constructed to fit into the inner face of the slip body in an attached position, and each insert comprises a front side adapted to grip the tubular member characterised in that: the slip body is made of a non-metallic material or a composite material. a top end (122, 1022) and a bottom end (124, 1024); an outer face (106, 1006) having an arcuate shape; and an inner face (110, 1010) having an arcuate shape at least partially surrounding the slip opening;
Slide catch lever of a firearm, which is constructed in one piece and can be articulated on the firearm so as to be pivotable between its release position and its retained position about a pivot axis arranged on the right side or the left side on the firearm, characterised in that the slide catch lever can be operated on both sides of the firearm and for this purpose has handles (7, 13, 17) projecting on both sides of the firearm.
Quick coupler for coupling a tool to an excavator arm or the like, comprising a coupling mount for receiving a first locking part and a locking mount for receiving a second locking part, wherein a securing element for catching and/or securing the first locking part in the coupling mount is associated with the coupling mount, and a locking element for locking the second locking part in the locking mount is associated with the locking mount, wherein the securing element is actuable by an adjustment actuator and the named locking element is actuable by a further adjustment actuator, wherein the quick coupler is electrically controllable and actuable and has an electric drive with a pump for actuating the adjustment actuator of the locking element, characterized in that the adjustment actuator of the securing element is actuable by a further electric drive with a further pump, and the electric drives are configured such that the locking element and the securing element can be actuated independently of one another and in a manner offset in time from one another.
A method for imaging a microscopic object with improved resolution comprising: - measuring with an instrument or microscope a complex wavefield scattered by the microscopic object, the complex wavefield being represented by phase and amplitude or by real and imaginary parts; characterized in' that the method further comprises the step of - computing an image of the microscopic object with a resolution better than the diffraction limit given by the conventional Abbe law, including deconvolving the complex wavefield scattered by the microscopic objet with a complex coherent transfer function applied to the complex wavefield. - measuring with an instrument or microscope a complex wavefield scattered by the microscopic object, the complex wavefield being represented by phase and amplitude or by real and imaginary parts; characterized in' that the method further comprises the step of - computing an image of the microscopic object with a resolution better than the diffraction limit given by the conventional Abbe law, including deconvolving the complex wavefield scattered by the microscopic objet with a complex coherent transfer function applied to the complex wavefield.
A cathode for an electrochemical accumulator including: - a current collector, - an interfacing layer, the interfacing layer being coated on the current collector, and - an electrode, the electrode being formed by deposition, in particular by coating, of a first composition on the interfacing layer, the first composition having a potential of hydrogen greater than or equal to 10, the potential of hydrogen being measured at a temperature of 25°C, the first composition being a water-based cathode composition comprising a first insertion material, a first binder material and first conductive additive, the interfacing layer being formed by deposition, in particular by coating, on the current collector of a second composition, the second composition comprising a second binder material and a second conductive additive, the second binder material comprising a mixture of a first polymer and a second polymer, the first polymer being chosen from among polyimides, polyamide-imides, polyether-imides, and a mixture thereof, and the second polymer being chosen from among polyvinylpyrrolidone, polyvinyl alcohols, ethylene-vinyl alcohol copolymers, polyacrylic acid, and a mixture thereof. - a current collector, - an interfacing layer, the interfacing layer being coated on the current collector, and - an electrode, the electrode being formed by deposition, in particular by coating, of a first composition on the interfacing layer, the first composition having a potential of hydrogen greater than or equal to 10, the potential of hydrogen being measured at a temperature of 25°C, the first composition being a water-based cathode composition comprising a first insertion material, a first binder material and first conductive additive, the interfacing layer being formed by deposition, in particular by coating, on the current collector of a second composition, the second composition comprising a second binder material and a second conductive additive, the first composition being a water-based cathode composition comprising a first insertion material, a first binder material and first conductive additive, the interfacing layer being formed by deposition, in particular by coating, on the current collector of a second composition, the second composition comprising a second binder material and a second conductive additive, the second binder material comprising a mixture of a first polymer and a second polymer, the first polymer being chosen from among polyimides, polyamide-imides, polyether-imides, and a mixture thereof, and the second polymer being chosen from among polyvinylpyrrolidone, polyvinyl alcohols, ethylene-vinyl alcohol copolymers, polyacrylic acid, and a mixture thereof.
A remote controller comprising: a speaker configured to send an ultrasonic signal (Ω) that controls an operation of at least one in-vehicle device (51 to 54) and an information receiver configured to detect information related to noise sound inside a vehicle; characterized in that the remote controller further comprises a controller configured to calculate a propagability index of the ultrasonic signal (Ω) from the information related to noise sound; and a display configured to display the propagability index as communication quality level of the ultrasonic signal (Ω), wherein: the information receiver is configured to measure degree of change in operating mode of the at least one in-vehicle device (51 to 54) that changes the operating mode based on the ultrasonic signal (Ω); and the controller is configured to recalculate the propagability index based on the degree of change and update display of the communication quality level. a speaker configured to send an ultrasonic signal (Ω) that controls an operation of at least one in-vehicle device (51 to 54) and an information receiver configured to detect information related to noise sound inside a vehicle; characterized in that the remote controller further comprises a controller configured to calculate a propagability index of the ultrasonic signal (Ω) from the information related to noise sound; and a display configured to display the propagability index as communication quality level of the ultrasonic signal (Ω), wherein: the information receiver is configured to measure degree of change in operating mode of the at least one in-vehicle device (51 to 54) that changes the operating mode based on the ultrasonic signal (Ω); and the controller is configured to recalculate the propagability index based on the degree of change and update display of the communication quality level.