mhurhangee/ep-ind-claims huggingface dataset:
An underwater trenching apparatus comprising: at least one trenching tool; a lifting attachment point configured for attachment of a lifting means for lowering the trenching apparatus to, or raising the trenching apparatus from, its location of operation; at least two steerable endless track units for transmitting tractive effort to move the underwater trenching apparatus in use; and for each steerable endless track unit, a first mounting arrangement (42a, 42b, 46) permitting rotation of the track unit about a vertical axis, and a first actuator configured to move the track unit about the vertical axis, control means configured to control the action of the actuator, the apparatus further comprising a main body portion to which the lifting attachment portion is attached and to which the endless track units are mounted, characterised in that each steerable endless track unit is independently steerable, and wherein each endless track unit is attached to a first end of a respective leg, the second end of leg being attached to the main body portion, the track units being rotatable with respect to the respective legs about a nominally horizontal axis and the respective second ends of the legs are attached to the main body portion and are rotatable with respect to the main body portion about a nominally horizontal axis extending substantially perpendicular to the direction of travel of the apparatus. at least one trenching tool; a lifting attachment point configured for attachment of a lifting means for lowering the trenching apparatus to, or raising the trenching apparatus from, its location of operation; at least two steerable endless track units for transmitting tractive effort to move the underwater trenching apparatus in use; and for each steerable endless track unit, a first mounting arrangement (42a, 42b, 46) permitting rotation of the track unit about a vertical axis, and a first actuator configured to move the track unit about the vertical axis, control means configured to control the action of the actuator, the apparatus further comprising a main body portion to which the lifting attachment portion is attached and to which the endless track units are mounted, characterised in that each steerable endless track unit is independently steerable, and wherein each endless track unit is attached to a first end of a respective leg, the second end of leg being attached to the main body portion, the track units being rotatable with respect to the respective legs about a nominally horizontal axis and the respective second ends of the legs are attached to the main body portion and are rotatable with respect to the main body portion about a nominally horizontal axis extending substantially perpendicular to the direction of travel of the apparatus.
A bioadhesive sheet-shaped material, comprising: an extracellular matrix layer; a sheet-shaped cell culture; and a biodegradable gel layer, wherein the bioadhesive sheet-shaped material has the extracellular matrix layer on one surface and the biodegradable gel layer on the other surface with the sheet-shaped cell culture interposed therebetween, for use in a method of attaching the extracellular matrix layer onto a surface of an organ, wherein the organ is selected from the group consisting of stomach, large intestine, duodenum, and liver, wherein the sheet-shaped cell culture contains myoblast cells or mesenchymal stem cells, and wherein the biodegradable gel layer is obtained by mixing a liquid containing fibrinogen with a liquid containing thrombin. the sheet-shaped cell culture contains myoblast cells or mesenchymal stem cells, and wherein the biodegradable gel layer is obtained by mixing a liquid containing fibrinogen with a liquid containing thrombin.
A camera assembly, comprising: a first camera; a first motor, coupled to the first camera, and configured to drive the first camera to move; a second camera, comprising a plurality of pixel blocks, each pixel block comprising a plurality of photodiode pixels, each pixel block being configured to obtain first photodiode pixel data by capturing a portrait area corresponding to a face through a first part of the plurality of photodiode pixels and obtain second photodiode pixel data by capturing the portrait area through a second part of the plurality of photodiode pixels when the face is detected by the second camera, wherein each pixel block comprises 2 ∗ 2 photodiode pixels, the first part of the plurality of photodiode pixels represent the left two pixels of the pixel block and the second part of the plurality of photodiode pixels represent the right two pixels of the pixel block; and a controller, coupled to the first camera, the first motor and the second camera respectively, and configured to obtain global photodiode pixel data by performing data adding on the first photodiode pixel data captured by all the pixel blocks of the second camera and performing data adding on the second photodiode pixel data captured by all the pixel blocks of the second camera, to calculate a phase difference according to the global photodiode pixel data, and to control the first motor to drive the first camera to move to an in-focus position according to the phase difference. a first camera; a first motor, coupled to the first camera, and configured to drive the first camera to move; a second camera, comprising a plurality of pixel blocks, each pixel block comprising a plurality of photodiode pixels, each pixel block being configured to obtain first photodiode pixel data by capturing a portrait area corresponding to a face through a first part of the plurality of photodiode pixels and obtain second photodiode pixel data by capturing the portrait area through a second part of the plurality of photodiode pixels when the face is detected by the second camera, wherein each pixel block comprises 2 ∗ 2 photodiode pixels, the first part of the plurality of photodiode pixels represent the left two pixels of the pixel block and the second part of the plurality of photodiode pixels represent the right two pixels of the pixel block; and a controller, coupled to the first camera, the first motor and the second camera respectively, and configured to obtain global photodiode pixel data by performing data adding on the first photodiode pixel data captured by all the pixel blocks of the second camera and performing data adding on the second photodiode pixel data captured by all the pixel blocks of the second camera, to calculate a phase difference according to the global photodiode pixel data, and to control the first motor to drive the first camera to move to an in-focus position according to the phase difference.
A wound dressing (1, 1', 1") comprising at least one sensor (5, 6, 7) and a display, which is adapted to receive data determined by the sensor (5, 6, 7) in form of an electrical signal and to display the received data, wherein the wound dressing (1, 1', 1") comprises an absorbent core, a facing layer, and a backing layer, wherein the absorbent core is located between the facing layer and the backing layer, wherein the display is mounted on or integrated with a backing layer of the wound dressing (1, 1', 1") and the sensor is located at or integrated with the backing layer, wherein the at least one sensor (5, 6, 7) is adapted for determining data on moisture, moisture level, pressure, temperature, and/or pH level, characterized in that the wound dressing (1, 1', 1") furthermore comprises a battery which is a galvanic cell formed by the sensor (5, 6, 7), and in that the sensor (5, 6, 7) comprises two electrodes (15, 16), which are adapted to be activated by a wound fluid, wherein the electrodes (15, 16) are flat and have a circular, elliptical, rectangular or square shape.
A method in a wireless device configured for operation in a wireless communication network, the method comprising: detecting synchronization signals received at the wireless device; deciding from a relative positioning or mapping of the synchronization signals that the synchronization signals are device-generated synchronization signals originating from another wireless device, rather than network synchronization signals originating from a base station in the network, wherein the device-generated synchronization signals are generated using at least a subset of the same sequences as the network synchronization signals; processing the synchronization signals according to processing procedures associated with the synchronization signals being decided to be device-generated synchronization signals; characterized in that the method further comprises: receiving a Device-to-Device, D2D, broadcast control channel in association with the synchronization signals; and detecting that one or more control fields in the D2D broadcast channel have been included or omitted, wherein the control field omissions or inclusions characteristically distinguish the D2D broadcast control channel from network broadcast control channel transmissions by any of the base stations in association with their respective transmissions of the network synchronization signals. detecting synchronization signals received at the wireless device; deciding from a relative positioning or mapping of the synchronization signals that the synchronization signals are device-generated synchronization signals originating from another wireless device, rather than network synchronization signals originating from a base station in the network, wherein the device-generated synchronization signals are generated using at least a subset of the same sequences as the network synchronization signals; processing the synchronization signals according to processing procedures associated with the synchronization signals being decided to be device-generated synchronization signals; characterized in that the method further comprises: receiving a Device-to-Device, D2D, broadcast control channel in association with the synchronization signals; and detecting that one or more control fields in the D2D broadcast channel have been included or omitted, wherein the control field omissions or inclusions characteristically distinguish the D2D broadcast control channel from network broadcast control channel transmissions by any of the base stations in association with their respective transmissions of the network synchronization signals. receiving a Device-to-Device, D2D, broadcast control channel in association with the synchronization signals; and detecting that one or more control fields in the D2D broadcast channel have been included or omitted, wherein the control field omissions or inclusions characteristically distinguish the D2D broadcast control channel from network broadcast control channel transmissions by any of the base stations in association with their respective transmissions of the network synchronization signals.
Passenger cell (1, 1a, 1b) comprising a positive mould (2, 2a, 2b) of the passenger cell (1, 1a, 1b) and an outer covering from fibre-reinforced plastics material that shrouds said positive mould (2, 2a, 2b), wherein the positive mould (2, 2a, 2b) is hollow, wherein the positive mould (2, 2a, 2b) has a substantially closed outer surface and remains in the finished passenger cell (1, 1a, 1b), wherein the positive mould (2, 2a, 2b) on the inner side comprises functional components (4a, 4b, 4c), wherein the functional components (4a, 4b, 4c), specifically an interior trim, a dashboard, and/or a mounting for a seat, are integrated in the positive mould (2a, 2b), wherein the passenger cell is characterized in that the positive mould is composed of thermoplastic plastics material and is produced by the injection-moulding method.
A method comprising: sending, from a testing computer system to an agent program running on a client computer system, test payloads for the agent program to forward to a set of target systems; sending, from the testing computer system to the client computer system, a scan start command after sending the test payloads, wherein the scan start command is a separate message from the test payloads; receiving, at the testing computer system, test results generated by the set of target systems; generating, with the testing computer system, an analysis of the test results, wherein the analysis indicates that a particular target system of the set of target systems is implicated in a security breach; receiving, at the testing computer system, a user selection of a response to the security breach; compiling, with the testing computer system, a runtime payload that is executable by the agent program to perform the response with the particular target system; sending, from the testing computer system to the agent program, the runtime payload; and receiving, at the testing computer system from the agent program, an indication of execution of the runtime payload. sending, from a testing computer system to an agent program running on a client computer system, test payloads for the agent program to forward to a set of target systems; sending, from the testing computer system to the client computer system, a scan start command after sending the test payloads, wherein the scan start command is a separate message from the test payloads; receiving, at the testing computer system, test results generated by the set of target systems; generating, with the testing computer system, an analysis of the test results, wherein the analysis indicates that a particular target system of the set of target systems is implicated in a security breach; receiving, at the testing computer system, a user selection of a response to the security breach; compiling, with the testing computer system, a runtime payload that is executable by the agent program to perform the response with the particular target system; sending, from the testing computer system to the agent program, the runtime payload; and receiving, at the testing computer system from the agent program, an indication of execution of the runtime payload.
A lapping slurry comprising: abrasive particles dispersed in a carrier, the abrasive particles selected from a group of cubic boron nitride, diamond, surface modified diamond and diamond composite materials, wherein the carrier comprises water, ethylene glycol and between 0.5 wt% to 60 wt% surfactant which is a cationic surfactant that is an alkyl-quarternized ammonium salt comprising at least one of chloride salt, methosulfate salt, or bromide salt.
Method for determining an optimum sea depth for locating and/or concealing an object (111, 220) underwater by way of a data processing device and/or a navigation device, comprising the following steps: - selecting a profile of a speed of sound at a sea depth (105, 205) for a coordinate from a database or ascertaining the profile of the speed of sound at the sea depth for the coordinate, - selecting characteristic points on the profile of the speed of sound at the sea depth, wherein a characteristic and/or abrupt change of a course of the profile occurs at the characteristic points, - performing a sound propagation calculation method by way of an algorithm of the data processing device and/or of the navigation device for propagation of the acoustic energies (110, 210) of a transmitted and/or received acoustic signal at the selected characteristic points, - ascertaining a distance-dependent signal-to-noise ratio of the ascertained acoustic energies for the selected characteristic points, - defining the optimum sea depth on the basis of the signal-to-noise ratio of the ascertained acoustic energies for detecting and/or for concealing an object underwater. - selecting a profile of a speed of sound at a sea depth (105, 205) for a coordinate from a database or ascertaining the profile of the speed of sound at the sea depth for the coordinate, - selecting characteristic points on the profile of the speed of sound at the sea depth, wherein a characteristic and/or abrupt change of a course of the profile occurs at the characteristic points, - performing a sound propagation calculation method by way of an algorithm of the data processing device and/or of the navigation device for propagation of the acoustic energies (110, 210) of a transmitted and/or received acoustic signal at the selected characteristic points, - ascertaining a distance-dependent signal-to-noise ratio of the ascertained acoustic energies for the selected characteristic points, - defining the optimum sea depth on the basis of the signal-to-noise ratio of the ascertained acoustic energies for detecting and/or for concealing an object underwater.
A MUC-1 based formulation comprising a liposome comprising at least one polypeptide comprising a lipidated MUC-1 amino acid sequence of SEQ ID NOs: 1 or 2, for use in the treatment of prostate cancer.
A rotor blade with a leading edge and a trailing edge, wherein - the rotor blade is designed and configured for being exposed to a fluid flowing substantially from the leading edge to the trailing edge, - the rotor blade comprises at least two sensors designed for detecting flow characteristics of the fluid and providing respective sensor signals, and - the rotor blade further comprises at least two actuators for producing an anti-noise signal based on a sensor signal, - the sensors are arranged spanwise and the actuators are arranged chordwise at the surface of the rotor blade, wherein the sensors are arranged in a group that corresponds with a chordwise distribution of actuators, and - the actuators are arranged and prepared such that flow-induced edge noise of the rotor blade, which is generated by the fluid, is at least partly cancelled out by the anti-noise signal. - the rotor blade is designed and configured for being exposed to a fluid flowing substantially from the leading edge to the trailing edge, - the rotor blade comprises at least two sensors designed for detecting flow characteristics of the fluid and providing respective sensor signals, and - the rotor blade further comprises at least two actuators for producing an anti-noise signal based on a sensor signal, - the sensors are arranged spanwise and the actuators are arranged chordwise at the surface of the rotor blade, wherein the sensors are arranged in a group that corresponds with a chordwise distribution of actuators, and - the actuators are arranged and prepared such that flow-induced edge noise of the rotor blade, which is generated by the fluid, is at least partly cancelled out by the anti-noise signal.
A process, comprising the steps of: (a) calcining a catalyst precursor at a temperature of at least 500°C and a maximum of 700°C, in an inert atmosphere of nitrogen, argon, xenon, helium or mixtures thereof, to provide a mixed metal oxide first catalyst having the empirical formula: MoV a Nb b X c Z d O n wherein X is Te, Z is Pd, a = 0.2 to 0.3, b = 0.1 to 0.3, c = 0.15 to 0.3, d = 0.005 to 0.02, and n is determined by the oxidation states of the other elements; and (b) calcining the first catalyst at a temperature from 100°C to 550°C partly or wholly in an atmosphere that comprises water vapor to form a mixed metal oxide final catalyst; and further comprising: (c) grinding the calcined mixed metal oxide final catalyst. (a) calcining a catalyst precursor at a temperature of at least 500°C and a maximum of 700°C, in an inert atmosphere of nitrogen, argon, xenon, helium or mixtures thereof, to provide a mixed metal oxide first catalyst having the empirical formula: MoV a Nb b X c Z d O n wherein X is Te, Z is Pd, a = 0.2 to 0.3, b = 0.1 to 0.3, c = 0.15 to 0.3, d = 0.005 to 0.02, and n is determined by the oxidation states of the other elements; and (b) calcining the first catalyst at a temperature from 100°C to 550°C partly or wholly in an atmosphere that comprises water vapor to form a mixed metal oxide final catalyst;
A method for the preparation of a Fischer-Tropsch catalyst or catalyst precursor comprising: (a) admixing: (i) a carrier material; (ii) a crystalline solid solution of a cobalt compound and one or more d-metal compounds and optionally one or more co-catalysts or precursors thereof; and (iii) optionally a liquid; (b) forming the mixture of step (a); and (c) optionally drying and/or calcining the product of step (b), whereby 90% or more of the crystals in the crystalline solid solution comprises 1 to 10 wt%, preferably 3 to 7 wt%, more preferably 4 to 6 wt% of d-metal, calculated on the total weight of d-metal atoms and cobalt atoms per single crystal. (a) admixing: (i) a carrier material; (ii) a crystalline solid solution of a cobalt compound and one or more d-metal compounds and optionally one or more co-catalysts or precursors thereof; and (iii) optionally a liquid; (i) a carrier material; (ii) a crystalline solid solution of a cobalt compound and one or more d-metal compounds and optionally one or more co-catalysts or precursors thereof; and (iii) optionally a liquid; (b) forming the mixture of step (a); and (c) optionally drying and/or calcining the product of step (b),
A method for manufacturing an MEMS sound transducer (500, 700, 800, 900, 1000) for generating sound, comprising: providing an actuator (510, 710, 810) and a surrounding structure, wherein the actuator (510, 710, 810) is separated from the surrounding structure by one or more gaps and is configured to execute a relative movement between the actuator (510, 710, 810) and the surrounding structure, and wherein the actuator (510, 710, 810) and the surrounding structure comprise a plurality of recesses (510-2, 510-5, 530-2, 530-4, 710-2) and projections (510-1, 510-1-1, 510-4, 530-1, 530-1-1, 530-5, 710-1), wherein the plurality of projections (510-1, 510-1-1, 510-4, 710-1) belonging to the actuator (510, 710, 810) are arranged to interdigitate into the plurality of recesses belonging to the surrounding structure, and/or the plurality of projections (530-1, 530-1-1, 530-5) belonging to the surrounding structure to interdigitate into the plurality of recesses (510-2, 510-5, 710-2) belonging to the actuator (510, 710, 810), forming the interdigitating elements such that the interdigitating elements are thus separated by the one or more gaps, and such that overlapping areas of the plurality of recesses and projections are configured such that the interdigitating elements comprise a specific frequency-depending attenuation function with a relative movement between the actuator (510, 710, 810) and the surrounding structure to suppress harmonic distortions; and wherein the overlapping areas are directly opposite areas moving past each other by the relative movement. providing an actuator (510, 710, 810) and a surrounding structure, wherein the actuator (510, 710, 810) is separated from the surrounding structure by one or more gaps and is configured to execute a relative movement between the actuator (510, 710, 810) and the surrounding structure, and wherein the actuator (510, 710, 810) and the surrounding structure comprise a plurality of recesses (510-2, 510-5, 530-2, 530-4, 710-2) and projections (510-1, 510-1-1, 510-4, 530-1, 530-1-1, 530-5, 710-1), wherein the plurality of projections (510-1, 510-1-1, 510-4, 710-1) belonging to the actuator (510, 710, 810) are arranged to interdigitate into the plurality of recesses belonging to the surrounding structure, and/or the plurality of projections (530-1, 530-1-1, 530-5) belonging to the surrounding structure to interdigitate into the plurality of recesses (510-2, 510-5, 710-2) belonging to the actuator (510, 710, 810), forming the interdigitating elements such that the interdigitating elements are thus separated by the one or more gaps, and such that overlapping areas of the plurality of recesses and projections are configured such that the interdigitating elements comprise a specific frequency-depending attenuation function with a relative movement between the actuator (510, 710, 810) and the surrounding structure to suppress harmonic distortions; and wherein the overlapping areas are directly opposite areas moving past each other by the relative movement.