mhurhangee/ep-ind-claims huggingface dataset:
A method for operating a gas turbine engine comprising a combustor (3; 7) having a natural vibration frequency (f 0), wherein: the combustor (3; 7) comprises a plurality of first burners and a plurality of second burners; the first burners are operated to produce first flames with a first time delay (τ 1) and the second burners are operated to produce second flames with a second time delay (τ 2); characterized in that a difference between the first time delay (τ 1) and the second time delay (τ 2) is equal to a reciprocal of the natural vibration frequency (f 0): τ 1 − τ 2 = 1 / f 0 where τ 1 is the first time delay, τ 2 is the second time delay and f 0 is the natural vibration frequency of the combustor. the combustor (3; 7) comprises a plurality of first burners and a plurality of second burners; the first burners are operated to produce first flames with a first time delay (τ 1) and the second burners are operated to produce second flames with a second time delay (τ 2); characterized in that a difference between the first time delay (τ 1) and the second time delay (τ 2) is equal to a reciprocal of the natural vibration frequency (f 0): τ 1 − τ 2 = 1 / f 0
Polycondensation product based on aromatics and/or heteroaromatics and aldehydes, characterized in that it contains a) at least one structural unit having a polyisobutylene side chain and an aromatic or heteroaromatic and b) at least one structural unit having an ionizable functional group and an aromatic or heteroaromatic, structural unit differing from structural unit and the aldehyde used having no acid or ester functions. a) at least one structural unit having a polyisobutylene side chain and an aromatic or heteroaromatic and b) at least one structural unit having an ionizable functional group and an aromatic or heteroaromatic,
- Supporting structure for sliding rail, comprising one or several identical modules, stacked longitudinally and supported on beams of a conventional compact palletisation facility, on which tracks for chains of the sliding rail are mountable, each of which in turn comprises ▪ a mesh with a quadrangular format and shaped as a plurality of support rods arranged perpendicularly and welded together forming a fixed unit, ▪ ribs on which the mesh is supported, the said ribs being fixed-length ribs or telescopic ribs of adjustable length, characterized in that, - the mesh has, on its upper part, supporting rods of a larger diameter than the support rods of the mesh, on which subsequently the chain will slide, the said supporting rods being distributed in pairs; and in that - the said ribs are arranged perpendicularly in relation to the supporting rods of the mesh. ▪ a mesh with a quadrangular format and shaped as a plurality of support rods arranged perpendicularly and welded together forming a fixed unit, ▪ ribs on which the mesh is supported, the said ribs being fixed-length ribs or telescopic ribs of adjustable length, - the mesh has, on its upper part, supporting rods of a larger diameter than the support rods of the mesh, on which subsequently the chain will slide, the said supporting rods being distributed in pairs; and in that - the said ribs are arranged perpendicularly in relation to the supporting rods of the mesh.
Method for directional digital data transmission between an aircraft and at least one first ground station by a ground-to-air direct radio system, the method comprising the steps of: providing a first antenna array and a second antenna array for the aircraft, the first and second antenna arrays (103, 105) being configured as directional antenna arrays; wherein the first antenna array and the second antenna array are arranged in mirror symmetry relative to a mirror axis in the middle of the fuselage of the aircraft; wherein the first antenna array comprises a length and a width, wherein a ratio between the length and the width of the first antenna array is greater than 1, wherein the first antenna array comprises a longitudinal axis which is running in the same direction as the longitudinal axis of the aircraft, the method further comprising the steps of spatially aligning of the first antenna array at the aircraft, wherein the spatially aligning takes place such that an area arises, wherein the area is not illuminated by a transmission lobe of the directed antenna array and wherein the area extends along a trajectory of the aircraft on ground; providing a third antenna at the first ground station; and transmitting digital data directly between the aircraft and the first ground station, continuously measuring a change in strength of a signal of the third antenna received by the first antenna during the flight of the aircraft; and adapting of a transmission lobe of the first antenna array based on the measured change in strength of the signal. providing a first antenna array and a second antenna array for the aircraft, the first and second antenna arrays (103, 105) being configured as directional antenna arrays; wherein the first antenna array and the second antenna array are arranged in mirror symmetry relative to a mirror axis in the middle of the fuselage of the aircraft; wherein the first antenna array comprises a length and a width, wherein a ratio between the length and the width of the first antenna array is greater than 1, wherein the first antenna array comprises a longitudinal axis which is running in the same direction as the longitudinal axis of the aircraft, the method further comprising the steps of spatially aligning of the first antenna array at the aircraft, wherein the spatially aligning takes place such that an area arises, wherein the area is not illuminated by a transmission lobe of the directed antenna array and wherein the area extends along a trajectory of the aircraft on ground; providing a third antenna at the first ground station; and transmitting digital data directly between the aircraft and the first ground station, continuously measuring a change in strength of a signal of the third antenna received by the first antenna during the flight of the aircraft; and adapting of a transmission lobe of the first antenna array based on the measured change in strength of the signal.
A method of obtaining monomeric serum albumin characterised in that it encompasses: a) equilibrating a HW-55 column with an equilibration buffer of pH 5.65 comprising 0.1 M acetate and 1% n-butanol, b) loading a BSA preparation on said column, c) eluting the BSA by using the equilibration buffer. a) equilibrating a HW-55 column with an equilibration buffer of pH 5.65 comprising 0.1 M acetate and 1% n-butanol, b) loading a BSA preparation on said column, c) eluting the BSA by using the equilibration buffer.
One or more cells for use in a method of treatment, wherein the method is for transplanting the one or more cells and growing an ectopic tissue in a subject, the method comprising: (a) advancing an endoscope through an endoluminal approach into a gastrointestinal, a respiratory, or a urinary tract of the subject, (b) utilizing a transluminal approach to insert a needle attached to the endoscope through a visceral wall into a lymph node of the subject, and (c) delivering the one or more cells into the lymph node via the needle, thereby allowing the one or more cells to engraft and produce the ectopic tissue in the lymph node. (a) advancing an endoscope through an endoluminal approach into a gastrointestinal, a respiratory, or a urinary tract of the subject, (b) utilizing a transluminal approach to insert a needle attached to the endoscope through a visceral wall into a lymph node of the subject, and (c) delivering the one or more cells into the lymph node via the needle, thereby allowing the one or more cells to engraft and produce the ectopic tissue in the lymph node.
A method, comprising: sending, by a first user equipment, UE, supporting a device-to-device, D2D, function, an attach request message to a serving base station of the current cell of the first UE, wherein the attach request message triggers the base station to send an initial UE message to a mobility management entity, the initial UE message indicates to the mobility management entity to send an initial context setup request message to the base station, the initial context setup request message comprises indication information, and the indication information indicates to the base station that the first UE supports the D2D function; receiving, by the first UE from the base station, information about a resource for broadcasting information of the first UE, wherein the resource is allocated by the base station; and broadcasting, by the first UE, information of the first UE on the resource to a second UE, wherein the information of the first UE comprises a service code of the first UE, and the service code of the first UE indicates application layer service information. sending, by a first user equipment, UE, supporting a device-to-device, D2D, function, an attach request message to a serving base station of the current cell of the first UE, wherein the attach request message triggers the base station to send an initial UE message to a mobility management entity, the initial UE message indicates to the mobility management entity to send an initial context setup request message to the base station, the initial context setup request message comprises indication information, and the indication information indicates to the base station that the first UE supports the D2D function; receiving, by the first UE from the base station, information about a resource for broadcasting information of the first UE, wherein the resource is allocated by the base station; and broadcasting, by the first UE, information of the first UE on the resource to a second UE, wherein the information of the first UE comprises a service code of the first UE, and the service code of the first UE indicates application layer service information.
A testing method for a smart wristband, the Bluetooth function of the smart wristband being put into a sleep state through presetting of the system software before the test, the testing method comprising the following steps of: carrying out electrical connection operations on the smart wristband under test during the test so that the Bluetooth function of the smart wristband is activated; and completing pairing between the smart wristband and a testing apparatus, and synchronously displaying a corresponding function of the smart wristband on a screen of the testing apparatus so as to be tested (S14, S15), wherein the testing apparatus is a smartphone, the testing of the corresponding function includes at least one of Bluetooth power testing, writing of the mainboard serial number, charging testing and motor vibration controlling; characterized by that the smart wristband and the testing apparatus are fixed in a shielding box, in the shielding box, only the smart wristband and the testing apparatus have the Bluetooth function so that the smart wristband and the test apparatus are connected in one-to-one correspondence via Bluetooth during the test. carrying out electrical connection operations on the smart wristband under test during the test so that the Bluetooth function of the smart wristband is activated; and completing pairing between the smart wristband and a testing apparatus, and synchronously displaying a corresponding function of the smart wristband on a screen of the testing apparatus so as to be tested (S14, S15), wherein the testing apparatus is a smartphone, the testing of the corresponding function includes at least one of Bluetooth power testing, writing of the mainboard serial number, charging testing and motor vibration controlling; characterized by that the smart wristband and the testing apparatus are fixed in a shielding box, in the shielding box, only the smart wristband and the testing apparatus have the Bluetooth function so that the smart wristband and the test apparatus are connected in one-to-one correspondence via Bluetooth during the test.
A seat structure comprising: a seat portion; and a backrest configured to be reclinable with respect to the seat portion, wherein in an upright position the postures of the seat portion and the backrest are constant, and in a relaxing position in which the backrest is reclined, the posture of the backrest is constant and the posture of the seat portion is changeable wherein the seat portion follows movement of the center of gravity of the seated person so that the posture of the seat portion is changed wherein when the seated person imposes a load on an ischial tuberosity support portion or vicinity of the seat portion, in the relaxing position, the seat portion rotates around a portion ahead of the ischial tuberosity support portion, and is displaced such that a rear edge of the seat portion becomes lower than a front edge thereof, characterized in that when the seated person imposes a load on a portion close to the front edge of the seat portion in the relaxing position, the seat portion rotates around a portion behind the ischial tuberosity support portion, and is displaced such that the front edge become lower than the rear edge. a seat portion; and a backrest configured to be reclinable with respect to the seat portion, wherein in an upright position the postures of the seat portion and the backrest are constant, and in a relaxing position in which the backrest is reclined, the posture of the backrest is constant and the posture of the seat portion is changeable wherein the seat portion follows movement of the center of gravity of the seated person so that the posture of the seat portion is changed wherein when the seated person imposes a load on an ischial tuberosity support portion or vicinity of the seat portion, in the relaxing position, the seat portion rotates around a portion ahead of the ischial tuberosity support portion, and is displaced such that a rear edge of the seat portion becomes lower than a front edge thereof, characterized in that when the seated person imposes a load on a portion close to the front edge of the seat portion in the relaxing position, the seat portion rotates around a portion behind the ischial tuberosity support portion, and is displaced such that the front edge become lower than the rear edge.
A method for wireless communications by a user equipment, UE, comprising: detecting that a first channel is not usable for communicating via a first radio access technology, RAT; and providing an indication to a network that the UE no longer supports the first channel in response to the detection, wherein the indication is provided via a capability update procedure that causes the network to query the UE about the UE's capabilities, wherein the capability update procedure is performed before the UE is operating in a connected mode with the network. detecting that a first channel is not usable for communicating via a first radio access technology, RAT; and providing an indication to a network that the UE no longer supports the first channel in response to the detection, wherein the indication is provided via a capability update procedure that causes the network to query the UE about the UE's capabilities, wherein the capability update procedure is performed before the UE is operating in a connected mode with the network.
A method comprising: detecting a pair of neighboring blocks in a MPEG-2 encoded I-frame, wherein the pair of neighboring blocks comprise one of: chrominance blocks and luminance blocks; determining if the pair of neighboring blocks (140, 145) have dct_dc_differential fields with absolute values that differ by greater than zero and less than a given threshold value; and embedding one of a first watermark payload bit value and a second watermark payload bit value in the neighboring blocks as a positive result of the determining, the embedding comprising ordering dct_dc_differential fields of the neighboring blocks, each dct_dc_differential field including a dct_dc_size field and a dct_dc_differential_l or dct_dc_differential_c field, such that ordering the dct_dc_differential fields in an ascending order encodes the first payload bit value and ordering the dct_dc_differential fields in a descending order encodes the second payload bit value, wherein ordering comprises swapping the dct_dc_differential fields to achieve the desired payload bit value encoding where the ordering does not already match the desired ordering and the ordering comprises taking no action to achieve a desired payload bit value encoding where the ordering already matches the desired ordering; and subsequent to the embedding, or as a negative result of the determining, detecting a further pair of neighboring blocks in an MPEG-2 encoded I-frame. detecting a pair of neighboring blocks in a MPEG-2 encoded I-frame, wherein the pair of neighboring blocks comprise one of: chrominance blocks and luminance blocks; determining if the pair of neighboring blocks (140, 145) have dct_dc_differential fields with absolute values that differ by greater than zero and less than a given threshold value; and embedding one of a first watermark payload bit value and a second watermark payload bit value in the neighboring blocks as a positive result of the determining, the embedding comprising ordering dct_dc_differential fields of the neighboring blocks, each dct_dc_differential field including a dct_dc_size field and a dct_dc_differential_l or dct_dc_differential_c field, such that ordering the dct_dc_differential fields in an ascending order encodes the first payload bit value and ordering the dct_dc_differential fields in a descending order encodes the second payload bit value, wherein ordering comprises swapping the dct_dc_differential fields to achieve the desired payload bit value encoding where the ordering does not already match the desired ordering and the ordering comprises taking no action to achieve a desired payload bit value encoding where the ordering already matches the desired ordering; and subsequent to the embedding, or as a negative result of the determining, detecting a further pair of neighboring blocks in an MPEG-2 encoded I-frame.
An automated driving system comprising: a first sensor providing first sensor data; a second sensor providing second sensor data, wherein the second sensor is a camera and the first sensor is a different type of sensor; and a processor communicatively coupled to the first sensor and the second sensor, wherein the processor is configured to: apply a first weight to the first sensor data and a second weight to the second sensor data, wherein the first weight and second weight are variable based on ambient light; merge the first and second weighted sensor data into a common three-dimensional coordinate system to create a representation of an image for a field of view corresponding to a direction of travel; identify one or more objects (310, 320) in the field of view; and generate one or more drive control signals to control a motion of the vehicle in response to the one or more objects (310, 320) in the field of view. a first sensor providing first sensor data; a second sensor providing second sensor data, wherein the second sensor is a camera and the first sensor is a different type of sensor; and a processor communicatively coupled to the first sensor and the second sensor, wherein the processor is configured to: apply a first weight to the first sensor data and a second weight to the second sensor data, wherein the first weight and second weight are variable based on ambient light; merge the first and second weighted sensor data into a common three-dimensional coordinate system to create a representation of an image for a field of view corresponding to a direction of travel; identify one or more objects (310, 320) in the field of view; and generate one or more drive control signals to control a motion of the vehicle in response to the one or more objects (310, 320) in the field of view.
A method comprising: beginning an additively manufactured build by depositing initial layers of the build (304, 404) a build plate; additively manufacturing a temperature control channel (308, 408) as part of the build in progress; flowing fluid through the temperature control channel (308, 408) while continuing to additively manufacture the build (304, 404) to provide temperature control for the build in progress; and completing additive manufacture of the build (304, 404); and characterized by additively manufacturing a support structure into the build (304, 404) to provide support for an overhanging portion of the build (304, 404), wherein the support structure includes a portion of the temperature control channel (308, 408). beginning an additively manufactured build by depositing initial layers of the build (304, 404) a build plate; additively manufacturing a temperature control channel (308, 408) as part of the build in progress; flowing fluid through the temperature control channel (308, 408) while continuing to additively manufacture the build (304, 404) to provide temperature control for the build in progress; and completing additive manufacture of the build (304, 404); and characterized by additively manufacturing a support structure into the build (304, 404) to provide support for an overhanging portion of the build (304, 404), wherein the support structure includes a portion of the temperature control channel (308, 408).
Centrifuge comprising a drum which is rotatable about an axis of rotation and has a flow path for a flowable product, the flow path having at least one feed pipe which does not rotate during operation, and a distributor in the drum having at least one or several distributor channels (12a, 12b) for feeding product into the drum interior and at least one liquid outlet, wherein at least one flow rectifier is integrated in the flow path, wherein the at least one flow rectifier has one or several stages (20a, 20b, 20c), wherein the one or at least one of the optionally several stages of the at least one flow rectifier is/are formed in at least one flow path of a component of the separator which does not rotate during operation, characterized in that at least one stage of the flow rectifier is formed as a flow laminator, and in that the flow laminator divides a pipe section into which it is inserted or in which it is formed into two or several individual channels (22a, b, c,...) which extend parallel to one another in sections or over their entire length.
A method for governing use of a tool, the method comprising: providing a system including (i) a registration and control component, (ii) at least one mobile device, and (iii) at least one tool including communication provisions and electronic locking provisions; registering the tool with the registration and control component; selecting at least one parameter to govern tool operation; transmitting the parameter to the tool to govern tool operation; whereby the tool remains operational until disabled based upon the selected parameter and without receipt of a deactivation signal; characterised in that the parameter to govern tool operation is selected from the group consisting of (i) a maximum amount of cumulative time during which the tool is operational, (ii) a maximum cumulative number of actuation cycles during which the tool is operational, (iii) combinations of (i) and (ii), and (iv) an expiration date up to and during which the tool use is allowed. providing a system including (i) a registration and control component, (ii) at least one mobile device, and (iii) at least one tool including communication provisions and electronic locking provisions; registering the tool with the registration and control component; selecting at least one parameter to govern tool operation; transmitting the parameter to the tool to govern tool operation; whereby the tool remains operational until disabled based upon the selected parameter and without receipt of a deactivation signal; characterised in that the parameter to govern tool operation is selected from the group consisting of (i) a maximum amount of cumulative time during which the tool is operational, (ii) a maximum cumulative number of actuation cycles during which the tool is operational, (iii) combinations of (i) and (ii), and (iv) an expiration date up to and during which the tool use is allowed.