mhurhangee/patent-ind-claim-en huggingface dataset:
A method of a User Equipment, in the following also referred to as UE, comprising: receiving a Downlink Control Information, in the following also referred to as DCI, format from a base station in slot n , wherein the DCI format indicates at least an uplink, in the following also referred to as UL, slot format combination which is indicative of slot formats that are applicable to a set of UL slots; characterized by applying a timing offset to the set of UL slots when applying the slot formats indicated by the DCI format , wherein an initial slot of the set of UL slots for which the UL slot format combination indicated by the DCI format is applied is slot n+X, wherein X is equal to or based upon the timing offset. receiving a Downlink Control Information, in the following also referred to as DCI, format from a base station in slot n , wherein the DCI format indicates at least an uplink, in the following also referred to as UL, slot format combination which is indicative of slot formats that are applicable to a set of UL slots; characterized by applying a timing offset to the set of UL slots when applying the slot formats indicated by the DCI format , wherein an initial slot of the set of UL slots for which the UL slot format combination indicated by the DCI format is applied is slot n+X, wherein X is equal to or based upon the timing offset.
A biocompatible and sterilisable cranial prosthesis comprising an interior, circular window and an outer, circular ring having means in which to engage one or more diagnostic instrument and/or intracranial delivery system and/or therapeutic ultrasound device, wherein said outer ring may be rotated; wherein said window allows for the use of an ultra-sound diagnostic device on the patient in which said prosthesis is implanted; wherein said prosthesis allows for the use of a nuclear magnetic resonance diagnostic device on the patient in which said prosthesis is implanted; and further wherein said cranial prosthesis is ultrasound compatible. wherein said prosthesis allows for the use of a nuclear magnetic resonance diagnostic device on the patient in which said prosthesis is implanted; and further wherein said cranial prosthesis is ultrasound compatible.
A process for coating a turbine component of a gas turbine engine , comprising: applying a thermal barrier material to provide a protective ceramic coating by a plasma spray technique or vapor deposition; and applying a conforming reflective layer to the thermal barrier material via atomic layer deposition, the conforming reflective layer conforming to a porous microstructure of the thermal barrier material , wherein the conforming reflective layer comprises platinum group metals. applying a thermal barrier material to provide a protective ceramic coating by a plasma spray technique or vapor deposition; and applying a conforming reflective layer to the thermal barrier material via atomic layer deposition, the conforming reflective layer conforming to a porous microstructure of the thermal barrier material , wherein the conforming reflective layer comprises platinum group metals.
A method for processing communication data, the method being applied to an electronic device, the method comprising: monitoring (S101) power consumption of the electronic device; determining (S102) a speed limit parameter based on the power consumption; and controlling (S103) a data transmission rate of the electronic device according to the speed limit parameter, wherein the speed limit parameter comprises a number of data packets received and sent in unit time; and controlling (S103) the data transmission rate of the electronic device according to the speed limit parameter comprises: limiting, according to the speed limit parameter, a number of the data packets transmitted by an application data transmission interface in unit time. monitoring (S101) power consumption of the electronic device; determining (S102) a speed limit parameter based on the power consumption; and controlling (S103) a data transmission rate of the electronic device according to the speed limit parameter, wherein the speed limit parameter comprises a number of data packets received and sent in unit time; and controlling (S103) the data transmission rate of the electronic device according to the speed limit parameter comprises: limiting, according to the speed limit parameter, a number of the data packets transmitted by an application data transmission interface in unit time.
An in vitro method for detecting presence of cancer, said method comprising the steps of: (a) obtaining a single hair sample; (b) generating small angle X-ray scattering intensity profile based on the hair sample to obtain SAXS data; (c) desmearing the SAXS data and performing Kratky Analysis; (d) performing relative estimation of peak area under 1.38 nm -1 to 0.89 nm -1 from keratin and lipid content in the hair sample to obtain R; (e) computing R' by the formula: 10 × R 2 /(D-R), wherein D is hair thickness in micron; and (f) comparing the value of R' with clinically validated samples; wherein R' value below 0.7 is indicative of presence of cancer and R' value above 0.8 indicates absence of cancer. (a) obtaining a single hair sample; (b) generating small angle X-ray scattering intensity profile based on the hair sample to obtain SAXS data; (c) desmearing the SAXS data and performing Kratky Analysis; (d) performing relative estimation of peak area under 1.38 nm -1 to 0.89 nm -1 from keratin and lipid content in the hair sample to obtain R; (e) computing R' by the formula: 10 × R 2 /(D-R), wherein D is hair thickness in micron; and (f) comparing the value of R' with clinically validated samples;
A multi-channel spectrometer device for detecting and/or quantifying a predetermined analyte of interest in a medium , the spectrometer device comprising: - an input for receiving a radiation signal carrying spectral information about the constituents in the medium in its spectral composition, - a first plurality of optical modulators operably connected to said input , each optical modulator of said first plurality of modulators being adapted for transforming said radiation signal in accordance with a first spectral transfer function, - a second plurality of optical modulators , disjunct from the first plurality of optical modulators , operably connected to said input , each optical modulator of said second plurality of modulators being adapted for transforming said radiation signal in accordance with a second spectral transfer function, the second spectral transfer function being different from the first spectral transfer function, - at least one detector element operably connected to said first and second plurality of optical modulators and adapted for generating a plurality of output signals indicative of the intensity of each of the plurality of transformed radiation signals of the first and the second plurality of optical modulators , and - a splitter for splitting the radiation signal received by the input into a plurality of waveguides, each waveguide feeding the radiation signal into a corresponding optical modulator, wherein the ratio of the number of optical modulators in said first plurality of optical modulators and the number of optical modulators in said second plurality of optical modulators is determined based on the ratio of intensities of a reference spectrum of said predetermined analyte of interest transformed by said first spectral transfer function and said reference spectrum transformed by said second spectral transfer function. - an input for receiving a radiation signal carrying spectral information about the constituents in the medium in its spectral composition, - a first plurality of optical modulators operably connected to said input , each optical modulator of said first plurality of modulators being adapted for transforming said radiation signal in accordance with a first spectral transfer function, - a second plurality of optical modulators , disjunct from the first plurality of optical modulators , operably connected to said input , each optical modulator of said second plurality of modulators being adapted for transforming said radiation signal in accordance with a second spectral transfer function, the second spectral transfer function being different from the first spectral transfer function, - at least one detector element operably connected to said first and second plurality of optical modulators and adapted for generating a plurality of output signals indicative of the intensity of each of the plurality of transformed radiation signals of the first and the second plurality of optical modulators , and - a splitter for splitting the radiation signal received by the input into a plurality of waveguides, each waveguide feeding the radiation signal into a corresponding optical modulator,
An object receiving method, the object receiving method comprises: determining , by a terminal device, an association relationship between a target object and a source object, wherein the target object and the source object comprise a reference signal or a channel, and the association relationship comprises a quasi co-location, QCL, relationship or a receive beam relationship; characterized in that the determining an association relationship between a target object and a source object comprises: determining the association relationship based on a measurement parameter corresponding to the source object; wherein the measurement parameter corresponding to the source object is signal to interference plus noise ratio, SINR, and the association relationship is determined based on QCL information corresponding to the signal to interference plus noise ratio, SINR. determining , by a terminal device, an association relationship between a target object and a source object, wherein the target object and the source object comprise a reference signal or a channel, and the association relationship comprises a quasi co-location, QCL, relationship or a receive beam relationship; characterized in that the determining an association relationship between a target object and a source object comprises: determining the association relationship based on a measurement parameter corresponding to the source object; wherein the measurement parameter corresponding to the source object is signal to interference plus noise ratio, SINR, and the association relationship is determined based on QCL information corresponding to the signal to interference plus noise ratio, SINR. determining the association relationship based on a measurement parameter corresponding to the source object; wherein the measurement parameter corresponding to the source object is signal to interference plus noise ratio, SINR, and the association relationship is determined based on QCL information corresponding to the signal to interference plus noise ratio, SINR.
Heater device , in particular continuous flow heater device, having at least one gas burner for heating of flowing water according to requirement, and having at least one pilot flame supply line for the gas supply for a pilot flame of the gas burner , characterized by a shut-off unit which has at least one shut-off valve and which is intended for interrupting a feed of gas to the pilot flame supply line in dependence on at least one characteristic variable of flow of the water.
A medical imaging system comprising: a teleoperational assembly configured to control movement of a medical instrument including an instrument tip ; and a processing unit including one or more processors, wherein the processing unit is configured to determine an instrument tip position; determine a position error associated with the instrument tip position; determine at least one instrument tip bounding volume based upon the position error; and indicate when the instrument tip is outside a field of view of an imaging instrument operably coupled to the teleoperational assembly based on the at least one instrument tip bounding volume. a teleoperational assembly configured to control movement of a medical instrument including an instrument tip ; and a processing unit including one or more processors, wherein the processing unit is configured to determine an instrument tip position; determine a position error associated with the instrument tip position; determine at least one instrument tip bounding volume based upon the position error; and indicate when the instrument tip is outside a field of view of an imaging instrument operably coupled to the teleoperational assembly based on the at least one instrument tip bounding volume. determine an instrument tip position; determine a position error associated with the instrument tip position; determine at least one instrument tip bounding volume based upon the position error; and indicate when the instrument tip is outside a field of view of an imaging instrument operably coupled to the teleoperational assembly based on the at least one instrument tip bounding volume.
A method of operating a terminal device in a wireless telecommunications network comprising the terminal device and a base station , wherein the wireless telecommunications network supports a random access procedure comprising an exchange of random access procedure messages between the terminal device and the base station, wherein at least one of the random access procedure messages is a variable size uplink message; wherein the method comprises: receiving from the base station an instruction to perform the random access procedure, characterised in that the instruction to perform the random access procedure comprises an indication of a message size to be used by the terminal device for the variable size uplink message during the random access procedure; and the method further comprises: performing the random access procedure by exchanging random access procedure messages with the base station, including transmitting the uplink message of variable size with a size corresponding to the indicated message size received from the base station.
A process for the manufacturing of a UHMWPE film, comprising in sequence the steps of: a. Providing a bed of UHMWPE powder, wherein the UHMWPE has an intrinsic viscosity (IV) as measured according to the method in the description of at least 2 dl/g and at most 40 dl/g; less than 1 side chain per 100 C atoms as measured according to the method in the description and a weight average molecular weight (Mw) of at least 100,000 g/mol; b. Applying a compression pressure on said bed at a compression temperature below the melting temperature of the UHMWPE powder to obtain a compressed bed; c. Compacting the compressed bed in a smoothing unit comprising two compacting surfaces and a gap between said two compacting surfaces, at a compacting temperature below the melting temperature of the UHMWPE powder to obtain a film; characterized in that the gap is substantially constant with a gap-thickness dimension having a variation (Δ compaction ) determined according to the method in the description of at most 20% during the compacting step c). a. Providing a bed of UHMWPE powder, wherein the UHMWPE has an intrinsic viscosity (IV) as measured according to the method in the description of at least 2 dl/g and at most 40 dl/g; less than 1 side chain per 100 C atoms as measured according to the method in the description and a weight average molecular weight (Mw) of at least 100,000 g/mol; b. Applying a compression pressure on said bed at a compression temperature below the melting temperature of the UHMWPE powder to obtain a compressed bed; c. Compacting the compressed bed in a smoothing unit comprising two compacting surfaces and a gap between said two compacting surfaces, at a compacting temperature below the melting temperature of the UHMWPE powder to obtain a film;
Device for processing a ground surface of artificial turf comprising filler, the device comprising a frame and moving means arranged for moving the device over the ground surface in a working direction I, a supplier arranged for taking up a flow of material from the ground surface , such as dirt and filler, and for supplying the flow to a processing device arranged for processing the flow of material, wherein the supplier extends at a distance above the ground surface and wherein the device further comprises an engaging device arranged for engaging the material on the ground surface for loosening said material, wherein the engaging device is arranged in front of the supplier seen in the working direction I, wherein the engaging device comprises a plurality of engaging members , wherein the engaging members comprise elongate engaging members , wherein a first end of the elongate members is arranged for engaging the material, characterized in that a second end of the elongate members is held to the frame.
A method of encoding for optical transmission of an input signal, comprising: generating a first signal ( g I ( t )) based on the input signal by providing a first delay , and by low pass filtering of the input signal, generating a second signal ( g Q ( t )) based on the input signal and based on a second delayed version of the input signal having a second delay larger than the first delay, such that in response to a pulse on the input signal, the second signal has a sequence of two pulses, the two pulses coinciding respectively with leading and trailing edges of a corresponding pulse on the first signal, and generating an encoded optical output signal based on the first signal and the second signal; wherein the first signal and the second signals are simulating in-phase, I, and quadrature, Q, waveforms; and wherein the first signal and the second signal comprise first and second electrical signals and the step of generating based on the first signal and the second signal comprises modulating an I input of an IQ modulator according to the first electrical signal and modulating a Q input of the IQ modulator according to the second electrical signal, to provide the encoded optical output signal for transmission. generating a first signal ( g I ( t )) based on the input signal by providing a first delay , and by low pass filtering of the input signal, generating a second signal ( g Q ( t )) based on the input signal and based on a second delayed version of the input signal having a second delay larger than the first delay, such that in response to a pulse on the input signal, the second signal has a sequence of two pulses, the two pulses coinciding respectively with leading and trailing edges of a corresponding pulse on the first signal, and generating an encoded optical output signal based on the first signal and the second signal; wherein the first signal and the second signals are simulating in-phase, I, and quadrature, Q, waveforms; and wherein the first signal and the second signal comprise first and second electrical signals and the step of generating based on the first signal and the second signal comprises modulating an I input of an IQ modulator according to the first electrical signal and modulating a Q input of the IQ modulator according to the second electrical signal, to provide the encoded optical output signal for transmission.
An air purge and pressurization system , comprising: an enclosed container located in an area classified as hazardous; a controller rated for operation within the hazardous area ; a pressure sensor located within the container and coupled to the controller ; at least one electrically powered component disposed within the container ; characterized in that the system further comprises a variable-speed fan located outside the hazardous area and coupled to the controller , the fan being configured to force air from outside the hazardous area into the container ; and wherein the controller is configured to monitor an air pressure detected by the pressure sensor and variably control a speed of the fan to maintain the detected pressure above a minimum pressure and to selectively power the at least one electrically powered component if the detected pressure is above the minimum pressure. an enclosed container located in an area classified as hazardous; a controller rated for operation within the hazardous area ; a pressure sensor located within the container and coupled to the controller ; at least one electrically powered component disposed within the container ; characterized in that the system further comprises a variable-speed fan located outside the hazardous area and coupled to the controller , the fan being configured to force air from outside the hazardous area into the container ; and wherein the controller is configured to monitor an air pressure detected by the pressure sensor and variably control a speed of the fan to maintain the detected pressure above a minimum pressure and to selectively power the at least one electrically powered component if the detected pressure is above the minimum pressure.
A crystal form I of -1-(6-bromo-2-methoxyquinolin-3-yl)-4-dimethylamino-1-phenyl-2-(1-naphthyl)-2-butan ol fumarate, wherein the X-ray powder diffraction pattern thereof has characteristic peaks at 2θ (°) values of 5.6±0.2, 11.2±0.2, 22.6±0.2, 23.1±0.2, 23.6±0.2, 29.0±0.2.
A core-sheath conjugated fiber comprising two kinds of polymer, wherein the core-sheath conjugated fiber is characterized in that the core component has projected shapes having projections and grooves alternately in a cross section in a direction perpendicular to the fiber axis, the projections are formed continuously in the direction of the fiber axis, and the height (H) of the projections, the width (WA) at the tip of the projections, and the width (WB) of the bottom surface satisfy the formulas at the same time. 1.0 ≤ H / WA 1 / 2 ≤ 3.0 1.0 ≤ WB / WA ≤ 3.0 wherein the height (H) of the projections, the width (WA) at the tip of the projections, and the width (WB) of the bottom surface are measured in μm.
A front panel for a drawer , the front panel being formed by at least one decorative plate and frame for receiving the decorative plate , wherein the decorative plate is at least partially received within the frame in a mounted condition and wherein the frame includes at least one locking portion for releasably locking the front panel to a drawer sidewall , wherein at least one holding device is arranged on at least one end portion of the decorative plate , the at least one holding device being configured to receive the at least one end portion of the decorative plate , being separate from the decorative plate and the frame and being configured to be releasably connected to the frame , characterized in that the holding device includes at least two components configured to be displaceable relative to one another, wherein a first component is configured to receive the end portion of the decorative plate and a second component is configured to be fixed to the frame , wherein the two components are pre-stressed relative to one another by at least one force storage member .
A battery packaging material comprising a laminate that includes at least a barrier layer , a heat-sealable resin layer situated on one surface side of the barrier layer , a polyester film situated on the other surface side of the barrier layer , and an adhesive layer provided between the barrier layer and the heat-sealable resin layer , the polyester film having a birefringence index in a range of 0.016 or more and 0.042 or less, as measured in accordance with the method specified in the description.