mhurhangee/patent-ind-claim-en huggingface dataset:
A method for transmitting payload in a subframe, the method being performed by a first network device , the method comprising: obtaining (S102) a transport block size, TBS, value by accessing an array storing a plurality of TBS values, wherein the TBS value is proportional to a number of user data symbols in a subframe of a given subframe length, wherein one and the same array is accessed regardless of the given subframe length, wherein the array is accessed using an index, the index being dependent on the number of the user data symbols in the subframe, wherein the index is defined by a default index being scaled by the number of the user data symbols in the subframe, and wherein the default index is scaled in inverse proportion to a first length, N RE , d SF , in terms of a number of resource elements, REs, per resource block, RB, reserved for data symbols within a legacy transmission time interval, TTI, and in proportion to a second length, N RE , d SSF , in terms of a number of REs per RB reserved for the user data symbols within the subframe; and transmitting (S104) a physical channel carrying payload in the subframe to a second network device , wherein amount of data in the payload is determined by the TBS value. obtaining (S102) a transport block size, TBS, value by accessing an array storing a plurality of TBS values, wherein the TBS value is proportional to a number of user data symbols in a subframe of a given subframe length, wherein one and the same array is accessed regardless of the given subframe length, wherein the array is accessed using an index, the index being dependent on the number of the user data symbols in the subframe, wherein the index is defined by a default index being scaled by the number of the user data symbols in the subframe, and wherein the default index is scaled in inverse proportion to a first length, N RE , d SF , in terms of a number of resource elements, REs, per resource block, RB, reserved for data symbols within a legacy transmission time interval, TTI, and in proportion to a second length, N RE , d SSF , in terms of a number of REs per RB reserved for the user data symbols within the subframe; and transmitting (S104) a physical channel carrying payload in the subframe to a second network device , wherein amount of data in the payload is determined by the TBS value.
An aerosol provision device for an aerosol provision system comprising: an interface configured to receive a consumable for the aerosol provision system; a camera configured to image a surface of the consumable; and control circuitry configured to: instruct the camera to capture an image of the surface of the consumable in response to the consumable being received by the interface, wherein the control circuitry is further configured to wait a predetermined time in response to the consumable being received by the interface prior to instructing the camera to capture the image; and send data derived from the image to a remote computing device . an interface configured to receive a consumable for the aerosol provision system; a camera configured to image a surface of the consumable; and control circuitry configured to: instruct the camera to capture an image of the surface of the consumable in response to the consumable being received by the interface, wherein the control circuitry is further configured to wait a predetermined time in response to the consumable being received by the interface prior to instructing the camera to capture the image; and send data derived from the image to a remote computing device . instruct the camera to capture an image of the surface of the consumable in response to the consumable being received by the interface, wherein the control circuitry is further configured to wait a predetermined time in response to the consumable being received by the interface prior to instructing the camera to capture the image; and send data derived from the image to a remote computing device .
Method for the production of activated CD3 - CD56 + NK cells comprising the steps of: a) isolating CD3 - CD56 + NK cells from a liver perfusate; b) cultivating said isolated CD3 - CD56 + NK cells in the presence of IL-2, IL-15 and IFNα. a) isolating CD3 - CD56 + NK cells from a liver perfusate; b) cultivating said isolated CD3 - CD56 + NK cells in the presence of IL-2, IL-15 and IFNα.
Electrically heatable layer stack (100; 200; 330; 430a, 430b; 630) for a wing skin , comprising: at least two substrate layers (110a, 110b; 210a-210d; 632a-632c), and at least one carbon nanotubes-, CNT-, layer (120; 220a-220c; 634a, 634b), which is arranged between the substrate layers (110a, 110b; 210a-210d; 632a-632c) and which is configured to conduct an electric current, wherein the substrate layers (110a, 110b; 210a-210d; 632a-632c) and the at least one CNT-layer (120; 220a-220c; 634a, 634b) are configured to produce heating of at least one of the substrate layers (110a, 110b; 210a-210d; 632a-632c) when an electric current is applied to the at least one CNT-layer (120; 220a-220c; 634a, 634b), characterized in that the thickness of the substrate layers (110a, 110b; 210a-210d; 632a-632c) lies within a range from 0.05 mm to 0.5 mm. at least two substrate layers (110a, 110b; 210a-210d; 632a-632c), and at least one carbon nanotubes-, CNT-, layer (120; 220a-220c; 634a, 634b), which is arranged between the substrate layers (110a, 110b; 210a-210d; 632a-632c) and which is configured to conduct an electric current, wherein the substrate layers (110a, 110b; 210a-210d; 632a-632c) and the at least one CNT-layer (120; 220a-220c; 634a, 634b) are configured to produce heating of at least one of the substrate layers (110a, 110b; 210a-210d; 632a-632c) when an electric current is applied to the at least one CNT-layer (120; 220a-220c; 634a, 634b), characterized in that the thickness of the substrate layers (110a, 110b; 210a-210d; 632a-632c) lies within a range from 0.05 mm to 0.5 mm.
An evaporative cooling pad for an air treatment unit , the evaporative cooling pad comprising: a first set of corrugated sheets and a second set of corrugated sheets having corrugations defined in a direction transversely of a horizontal plane of the pad, the sheets of the first set being disposed alternatively with the sheets of the second set , with the corrugations of the sheets of the first set crossing the corrugations of the sheets of the second set ; said crossed corrugations defining passageways penetrating from a first edge to a second edge of the pad , the corrugations of said corrugated sheets bearing against one another so that the sheets touch where at least one of the wave peaks (p1) and wave troughs (t1, t2) of their respective corrugations cross; at least one wave peak (p2) between two wave peaks (p1) of equal amplitude (a1) of at least one of the first and second set of corrugated sheets has a smaller amplitude (a2) than the wave peaks (p1) of equal amplitude (a1), wherein the wave length (wl2) of the wave troughs (t1, t2) on each side of the at least one wave peak (p2) with smaller amplitude (a2) is smaller than the wave length (wl1) of the two wave peaks (p1) of equal amplitude (a1) on each side of the wave peak (p2) with smaller amplitude (a2). a first set of corrugated sheets and a second set of corrugated sheets having corrugations defined in a direction transversely of a horizontal plane of the pad, the sheets of the first set being disposed alternatively with the sheets of the second set , with the corrugations of the sheets of the first set crossing the corrugations of the sheets of the second set ; said crossed corrugations defining passageways penetrating from a first edge to a second edge of the pad , the corrugations of said corrugated sheets bearing against one another so that the sheets touch where at least one of the wave peaks (p1) and wave troughs (t1, t2) of their respective corrugations cross; at least one wave peak (p2) between two wave peaks (p1) of equal amplitude (a1) of at least one of the first and second set of corrugated sheets has a smaller amplitude (a2) than the wave peaks (p1) of equal amplitude (a1), wherein the wave length (wl2) of the wave troughs (t1, t2) on each side of the at least one wave peak (p2) with smaller amplitude (a2) is smaller than the wave length (wl1) of the two wave peaks (p1) of equal amplitude (a1) on each side of the wave peak (p2) with smaller amplitude (a2).
An apparatus for carrying out mass transfer processes, comprising a column having at least two inlet pipes for introducing a gaseous phase, where separation-active internals are accommodated in the column and a column section extends from the at least two inlet pipes to the separation-active internals , in which section a coverage of a cross-sectional area of the column is less than 25%, based on the total cross-sectional area, and where the at least two inlet pipes have a height offset which corresponds to not more than three times the largest inlet pipe diameter and the at least two inlet pipes are at an angle (α) of from 60° to 150° to one another and have asymmetry with respect to one another, wherein the asymmetry is given by the at least two inlet pipes each having different inlet pipe diameters . where separation-active internals are accommodated in the column and a column section extends from the at least two inlet pipes to the separation-active internals , in which section a coverage of a cross-sectional area of the column is less than 25%, based on the total cross-sectional area, and where the at least two inlet pipes have a height offset which corresponds to not more than three times the largest inlet pipe diameter and the at least two inlet pipes are at an angle (α) of from 60° to 150° to one another and have asymmetry with respect to one another, wherein the asymmetry is given by the at least two inlet pipes each having different inlet pipe diameters .
A suspension device (A, A') of a motor-vehicle wheel (R, R'), including: - a wheel (R, R') support member (M,16), connected to the motor-vehicle structure by means of one or more suspension members (B, 19, 25) - a brake disc connected in rotation with the wheel (R, R2'), and - a brake disc cover rigidly connected to said support member (M,16) and surrounding, at least partially, said brake disc , said device (A, A') being characterized in that said brake disc cover is formed in a single piece with said support member (M, 16) of the wheel (R, R'). - a wheel (R, R') support member (M,16), connected to the motor-vehicle structure by means of one or more suspension members (B, 19, 25) - a brake disc connected in rotation with the wheel (R, R2'), and - a brake disc cover rigidly connected to said support member (M,16) and surrounding, at least partially, said brake disc ,
An apparatus for measuring the responsiveness of a subject with lowered level of consciousness, the apparatus being devoid of any stimulation means for proactively inducing arousals in the subject , the apparatus comprising: means for obtaining physiological signal data from the subject with lowered level of consciousness; a computer unit configured to: derive a first measure from the physiological signal data, the first measure being indicative of the level of consciousness of the subject ; and record a sequence of the first measure; and a detection system configured to detect a stimulus produced by at least one predetermined stimulus source and to supply a trigger message to the computer unit notifying it of the occurrence of a stimulus; wherein the computer unit is further configured to, in response to the trigger message, measure a change in the sequence of the first measure caused by said stimulus and determine a second measure indicative of a responsiveness of the subject based on the change measured. means for obtaining physiological signal data from the subject with lowered level of consciousness; a computer unit configured to: derive a first measure from the physiological signal data, the first measure being indicative of the level of consciousness of the subject ; and record a sequence of the first measure; and derive a first measure from the physiological signal data, the first measure being indicative of the level of consciousness of the subject ; and record a sequence of the first measure; and a detection system configured to detect a stimulus produced by at least one predetermined stimulus source and to supply a trigger message to the computer unit notifying it of the occurrence of a stimulus; wherein the computer unit is further configured to, in response to the trigger message, measure a change in the sequence of the first measure caused by said stimulus and determine a second measure indicative of a responsiveness of the subject based on the change measured.
A method for recording individual three-dimensional optical images for an overall image of a dental object to be measured, wherein after each individual image by means of a dental camera , a computer is used to automatically check whether an overlap region between the images to be combined fulfils certain recording conditions for error-free recording, wherein if the overlap region fulfils the recording conditions, the recording is carried out between the images to be combined and a first image sequence is continued, wherein the images of the first image sequence are combined into a first cluster , or if the overlap region of an image does not fulfil the recording conditions, the first image sequence is terminated and another, second image sequence is automatically started with said image , wherein the images of the second image sequence are combined into a second cluster , wherein a plurality of clusters is formed in the case of a plurality of image sequences , wherein the individual clusters are combined into the overall image of the object , characterised in that it is automatically checked at regular intervals during the measurement or after the measurement as to whether a current cluster shows a cluster overlap region with the preceding clusters and whether said cluster overlap region fulfils the recording conditions.
A device for generating a hologram using a hologram master , comprising: an optical system , the optical system , along an optical axis, comprising at least one laser radiation source , a diffractive optical element and a master holder , the master holder being configured to allow a holographic recording material to be exposed and the hologram master to be arranged therein or thereon; and the diffractive optical element being designed so as to change and adjust the shape and the intensity of laser radiation emitted by the laser radiation source and transmitted by the diffractive optical element with respect to a focal plane of the diffractive optical element , and to map the laser radiation on an irradiation plane in a beam path of the optical system , and thereby irradiate a first exposure area , which corresponds to an area of the holographic recording material to be exposed for generating the hologram, the diffractive optical element furthermore being designed so as to change and adjust the shape and the intensity of the laser radiation emitted by the laser radiation source and transmitted by the diffractive optical element with respect to the focal plane , and to map the laser radiation on at least one further irradiation plane in the beam path of the optical system , and thereby irradiate at least one further exposure area, which is spatially separated from the first exposure area, on the holographic recording material and which corresponds to a further area of the holographic recording material to be exposed for generating a further hologram. an optical system , the optical system , along an optical axis, comprising at least one laser radiation source , a diffractive optical element and a master holder , the master holder being configured to allow a holographic recording material to be exposed and the hologram master to be arranged therein or thereon; and the diffractive optical element being designed so as to change and adjust the shape and the intensity of laser radiation emitted by the laser radiation source and transmitted by the diffractive optical element with respect to a focal plane of the diffractive optical element , and to map the laser radiation on an irradiation plane in a beam path of the optical system , and thereby irradiate a first exposure area , which corresponds to an area of the holographic recording material to be exposed for generating the hologram, the diffractive optical element furthermore being designed so as to change and adjust the shape and the intensity of the laser radiation emitted by the laser radiation source and transmitted by the diffractive optical element with respect to the focal plane , and to map the laser radiation on at least one further irradiation plane in the beam path of the optical system , and thereby irradiate at least one further exposure area, which is spatially separated from the first exposure area, on the holographic recording material and which corresponds to a further area of the holographic recording material to be exposed for generating a further hologram.
A method for frequency measurement, being executed by a user equipment and comprising: obtaining M first frequencies by selecting from N first frequencies on condition that the user equipment has a power-saving requirement, wherein the N first frequencies are measured on condition that the user equipment has no power-saving requirement, M and N are positive integers and N is larger than or equals to M, each first frequency has a first priority higher than a second priority of a second frequency, and the second frequency is a frequency on which a current serving cell which the user equipment is camped on is; changing the priority of each of the M first frequencies from the first priority to a third priority, wherein the third priority is lower than the first priority; and conducting a measurement on the M first frequencies, wherein the measurement on the M first frequencies is the same as a measurement on a third frequency, wherein the third frequency has the third priority. obtaining M first frequencies by selecting from N first frequencies on condition that the user equipment has a power-saving requirement, wherein the N first frequencies are measured on condition that the user equipment has no power-saving requirement, M and N are positive integers and N is larger than or equals to M, each first frequency has a first priority higher than a second priority of a second frequency, and the second frequency is a frequency on which a current serving cell which the user equipment is camped on is; changing the priority of each of the M first frequencies from the first priority to a third priority, wherein the third priority is lower than the first priority; and conducting a measurement on the M first frequencies, wherein the measurement on the M first frequencies is the same as a measurement on a third frequency, wherein the third frequency has the third priority.
A solid or dry film lubricant comprising an oleaginous microbial biomass, wherein the oleaginous microbial biomass comprises predominantly intact cells, said cells comprising at least 50% triglyceride oil.
An apparatus for facilitating a skill learning process, comprising: an input, configured to receive data representing a neuronal electrical activity pattern over time of a skilled subject non-invasively acquired_while engaged in a respective skill; at least one automated processor, configured to process the determined neuronal electrical activity pattern over time; and a stimulator, configured to provide a stimulation selected from the group consisting of at least one of a sensory excitation, peripheral excitation, transcranial excitation, and a deep brain stimulation, CHARACTERIZED IN THAT the at least one automated processor is further configured to use a model having at least 4 dimensions, to determine a location-dependent neuronal electrical activity pattern selectively associated with successful learning of the skill; and the stimulator is further configured to entrain a subject training in the respective skill with the neuronal electrical activity pattern modulated dependent on the processed determined neuronal electrical activity pattern over time, whereby the subject training in the respective skill is entrained with the location-dependent neuronal electrical activity pattern selectively associated with successful learning of the skill of the skilled subject. an input, configured to receive data representing a neuronal electrical activity pattern over time of a skilled subject non-invasively acquired_while engaged in a respective skill; at least one automated processor, configured to process the determined neuronal electrical activity pattern over time; and a stimulator, configured to provide a stimulation selected from the group consisting of at least one of a sensory excitation, peripheral excitation, transcranial excitation, and a deep brain stimulation, CHARACTERIZED IN THAT the at least one automated processor is further configured to use a model having at least 4 dimensions, to determine a location-dependent neuronal electrical activity pattern selectively associated with successful learning of the skill; and the stimulator is further configured to entrain a subject training in the respective skill with the neuronal electrical activity pattern modulated dependent on the processed determined neuronal electrical activity pattern over time, whereby the subject training in the respective skill is entrained with the location-dependent neuronal electrical activity pattern selectively associated with successful learning of the skill of the skilled subject.