mhurhangee/ep-ind-claims huggingface dataset:
A distribution system for the distribution of a plurality of beneficial-organism breeding colonies into an agricultural or horticultural crop, comprising a plurality of distribution units used for distributing one beneficial-organism breeding colony into an agricultural or horticultural crop in each case, with the following features: the distribution units comprise a breeding, hatching and rearing ball for the beneficial organisms in each case; the breeding, hatching and rearing balls in each case contain a beneficial-organism/host population comprising a breeding-capable population of beneficial organisms and also a breeding-capable population of hosts; the breeding, hatching and rearing balls furthermore contain a nutrient supply for the hosts in each case; they consist of a biodegradable material; the distribution units are connected to one another by means of connecting twines. the distribution units comprise a breeding, hatching and rearing ball for the beneficial organisms in each case; the breeding, hatching and rearing balls in each case contain a beneficial-organism/host population comprising a breeding-capable population of beneficial organisms and also a breeding-capable population of hosts; the breeding, hatching and rearing balls furthermore contain a nutrient supply for the hosts in each case; they consist of a biodegradable material; the distribution units are connected to one another by means of connecting twines.
A polyelectrolyte fluorinated acrylic copolymer suitable for produce a release-agent composition for vulcanizing natural or synthetic rubber having the following formula: wherein: - Z is a counter-ion - R1, R2, R3, R4 and R5 are alkyl chains with a generic formula of -C n H 2n+1 with 0 ≤ n ≤ 22 - R6 is a fluorinated chain with a generic formula of -C n H 2n -C m F 2m+1 with 0 ≤ n ≤ 4 and 0 ≤ m ≤ 12 - o, p, q, r and y are the degree of polymerization of each single different repetitive unit of the copolymer of formula ranging, respectively, from 10 repetitive units to 30 repetitive units, from 0 repetitive units to 5 repetitive units, from 0 repetitive units to 5 repetitive units, from 0 repetitive units to 1 repetitive unit, and from 0 repetitive units to 10 repetitive units, said copolymer of formula having a ranging number of charges in its backbone from 1 to 12 in order to improve the non-sticking and lubrication properties of a corresponding fluorinated acrylic copolymer water dispersion towards rubber on different materials in vulcanizing pressure and temperature conditions. - Z is a counter-ion - R1, R2, R3, R4 and R5 are alkyl chains with a generic formula of -C n H 2n+1 with 0 ≤ n ≤ 22 - R6 is a fluorinated chain with a generic formula of -C n H 2n -C m F 2m+1 with 0 ≤ n ≤ 4 and 0 ≤ m ≤ 12 - o, p, q, r and y are the degree of polymerization of each single different repetitive unit of the copolymer of formula ranging, respectively, from 10 repetitive units to 30 repetitive units, from 0 repetitive units to 5 repetitive units, from 0 repetitive units to 5 repetitive units, from 0 repetitive units to 1 repetitive unit, and from 0 repetitive units to 10 repetitive units,
A method of transmitting an uplink signal at a user equipment in an Long Term Evolution, LTE, wireless communication system, the method comprising: generating rank information, RI, and hybrid automatic repeat request acknowledgement, HARQ-ACK, information; and transmitting the uplink signal via a plurality of single carrier frequency division multiple access, SC-FDMA, symbols in a subframe, wherein the RI and the HARQ-ACK included in the uplink signal are transmitted on a physical uplink shared channel, PUSCH, wherein the plurality of SC-FDMA symbols includes SC-FDMA symbol #n for a reference signal, RS, a first set of SC-FDMA symbols for the RI and a second set of SC-FDMA symbols for the HARQ-ACK and n denotes an integer of 0 or more, wherein the SC-FDMA symbol #n for a RS is allocated entire frequency of uplink transmission, and the first set of SC-FDMA symbols and the second set of SC-FDMA symbols are allocated some of frequency of the uplink transmission, wherein the SC-FDMA symbol #n is the only SC-FDMA symbol used for transmission of demodulation reference signals, DM-RS, on the PUSCH in the subframe, wherein the first set of SC-FDMA symbols includes SC-FDMA symbols #n-2, #n+2, #n+5 and #n+6 and the second set of SC-FDMA symbols includes SC-FDMA symbols #n-1, #n+1, #n+3 and #n+4, and wherein the first set and the second set are adjacent on the PUSCH in a subframe. generating rank information, RI, and hybrid automatic repeat request acknowledgement, HARQ-ACK, information; and transmitting the uplink signal via a plurality of single carrier frequency division multiple access, SC-FDMA, symbols in a subframe, wherein the RI and the HARQ-ACK included in the uplink signal are transmitted on a physical uplink shared channel, PUSCH, wherein the plurality of SC-FDMA symbols includes SC-FDMA symbol #n for a reference signal, RS, a first set of SC-FDMA symbols for the RI and a second set of SC-FDMA symbols for the HARQ-ACK and n denotes an integer of 0 or more, wherein the SC-FDMA symbol #n for a RS is allocated entire frequency of uplink transmission, and the first set of SC-FDMA symbols and the second set of SC-FDMA symbols are allocated some of frequency of the uplink transmission, wherein the SC-FDMA symbol #n is the only SC-FDMA symbol used for transmission of demodulation reference signals, DM-RS, on the PUSCH in the subframe, wherein the first set of SC-FDMA symbols includes SC-FDMA symbols #n-2, #n+2, #n+5 and #n+6 and the second set of SC-FDMA symbols includes SC-FDMA symbols #n-1, #n+1, #n+3 and #n+4, and wherein the first set and the second set are adjacent on the PUSCH in a subframe.
A battery module, comprising: a plurality of battery cells; a top plate configured to cover an upper side of the battery cells and to form an upper appearance of the battery module; a bottom plate disposed opposite to the top plate to cover a lower side of the battery cells and to form a lower appearance of the battery module; a pair of side plates configured to connect the bottom plate and the top plate and to cover both side surfaces of the battery cells; a bus bar unit comprising two bus bar bodies, two insulation covers, two case covers, and a sensing wire member, wherein each bus bar body are disposed at the front and rear sides of the battery cells and are electrically connected to the electrode leads of the battery cells; wherein the bus bar unit is connected to the pair of side plates and wherein the case covers of the bus bar unit form the appearance of the battery module at the front side and a rear side of the battery cells; and a pair of heatsinks (500, 600) respectively having a coolant injection portion and a coolant discharge portion protruding out of the battery module and respectively provided at the upper side and the lower side of the battery cells, wherein the pair of heatsinks include a first heatsink disposed between the upper side of the battery cells and the top plate, and a second heatsink disposed between the lower side of the battery cells and the bottom plate. a plurality of battery cells; a top plate configured to cover an upper side of the battery cells and to form an upper appearance of the battery module; a bottom plate disposed opposite to the top plate to cover a lower side of the battery cells and to form a lower appearance of the battery module; a pair of side plates configured to connect the bottom plate and the top plate and to cover both side surfaces of the battery cells; a bus bar unit comprising two bus bar bodies, two insulation covers, two case covers, and a sensing wire member, wherein each bus bar body are disposed at the front and rear sides of the battery cells and are electrically connected to the electrode leads of the battery cells; wherein the bus bar unit is connected to the pair of side plates and wherein the case covers of the bus bar unit form the appearance of the battery module at the front side and a rear side of the battery cells; and a pair of heatsinks (500, 600) respectively having a coolant injection portion and a coolant discharge portion protruding out of the battery module and respectively provided at the upper side and the lower side of the battery cells, wherein the pair of heatsinks include a first heatsink disposed between the upper side of the battery cells and the top plate, and a second heatsink disposed between the lower side of the battery cells and the bottom plate.
A vehicle lamp fitting comprising a first light source, a second light source and a light guide which guides light from the first light source and second light source, wherein the light guide has entrance surfaces (110, 111) through which light from the first light source and second light source enters, an emission surface through which light that has entered through the entrance surfaces (110, 111) is emitted to the outside, an internally reflecting surface which causes light that has entered through the entrance surfaces (110, 111) to be reflected, and a bent portion that is bent, wherein the internally reflecting surface comprises a plurality of first reflecting surfaces which are provided in a first region and which emit light from the first light source in a first direction, a plurality of second reflecting surfaces which are provided in a second region and which emit light from the second light source in the first direction, a third reflecting surface which is formed in a third region between the first region and the second region, which is substantially parallel to the emission surface in the third region and which thereby limits the light intensity with which light from the first and second light sources (12, 13) is emitted in the first direction from the emission surface, a plurality of fourth reflecting surfaces which are formed in the first region and are formed in such a way that light from the second light source is emitted in a second direction that is different from the first direction, and a plurality of fifth reflecting surfaces which are formed in the second region and are formed in such a way that light from the first light source is emitted in the second direction, and wherein the third reflecting surface is formed in the bent portion, characterized in that the first and fourth reflecting surfaces (141, 142) are formed alternately and consecutively in the first region, the second and fifth reflecting surfaces (151, 152) are formed alternately and consecutively in the second region, and the third reflecting surface is formed at a joint portion between an end one of the first reflecting surfaces and an end one of the second reflecting surfaces.
Percussion mechanism unit, in particular for a rotary and/or percussion hammer, comprising a control unit that is provided to control a drive unit and/or pneumatic percussion mechanism by open-loop and/or closed-loop control, and comprising a pressure sensor unit, which is provided to measure a pressure characteristic for the purpose of identifying at least one percussion mechanism state, characterized in that the pressure sensor unit is provided to measure the pressure characteristic in a transmission space that, in at least one percussion mechanism state, is connected in respect of pressure to at least one percussion space and/or to the compression space delimited by the piston.
A shrink film with at least a first shrinkable film layer comprising a blend of a cyclic polyolefin copolymer having a high glass transition temperature in the range of 85 °C to 165 °C, and a cyclic polyolefin copolymer having a low glass transition temperature of less than 85 °C, wherein the first shrinkable film layer further comprises low density polyethylene or linear low density polyethylene, and wherein the shrink film further comprises a core layer comprised of elastomers.
Method of determining a three-dimensional directedness-determined motion, including a forward-backward directedness, describing the motion of a movable ultrasound probe during acquisition of an ultrasound image of a volume portion by the ultrasound probe, the method comprising: - Receiving a stream of ultrasound image data from the ultrasound probe while the ultrasound probe is moved along the volume portion; - Inputting at least a subset of the ultrasound image data (20, 40) representing a plurality of ultrasound image frames into a machine-learning module, wherein the machine learning module has been trained to determine a three-dimensional motion between ultrasound image frames; - Determining, by the machine-learning module, a motion indicator indicating a three-dimensional motion between the ultrasound image frames; - Receiving directedness-indicative data being indicative of the forward-backward directedness of the motion; - Inputting at least a sub-set of the directedness-indicative data (26, 46) into a directedness-determining system; and - Determining, by the directedness-determining system, a directedness indicator of the three-dimensional motion between the ultrasound image frames; and - Determining a directedness-determined motion indicator indicating the three-dimensional directedness-determined motion, including a determined forward-backward directedness of the motion, between the ultrasound image frames from the motion indicator and the directedness indicator, wherein forward and backward refer to opposite sides of the ultrasound probe along a line perpendicular to the ultrasound image plane. - Receiving a stream of ultrasound image data from the ultrasound probe while the ultrasound probe is moved along the volume portion; - Inputting at least a subset of the ultrasound image data (20, 40) representing a plurality of ultrasound image frames into a machine-learning module, wherein the machine learning module has been trained to determine a three-dimensional motion between ultrasound image frames; - Determining, by the machine-learning module, a motion indicator indicating a three-dimensional motion between the ultrasound image frames; - Receiving directedness-indicative data being indicative of the forward-backward directedness of the motion; - Inputting at least a sub-set of the directedness-indicative data (26, 46) into a directedness-determining system; and - Determining, by the directedness-determining system, a directedness indicator of the three-dimensional motion between the ultrasound image frames; and - Determining a directedness-determined motion indicator indicating the three-dimensional directedness-determined motion, including a determined forward-backward directedness of the motion, between the ultrasound image frames from the motion indicator and the directedness indicator, wherein forward and backward refer to opposite sides of the ultrasound probe along a line perpendicular to the ultrasound image plane.
A shroud milling method, comprising: milling a convex side of a shroud; milling a concave side of the shroud; and holding a shroud of a blade within a common fixture when milling the convex side and when milling the concave side, wherein the common fixture includes three clamps (72a, 72b, 72c) such that the first clamp is used to secure a root of the blade while two further clamps (72b, 72c) directly contact an airfoil portion of the blade. milling a convex side of a shroud; milling a concave side of the shroud; and holding a shroud of a blade within a common fixture when milling the convex side and when milling the concave side, wherein the common fixture includes three clamps (72a, 72b, 72c) such that the first clamp is used to secure a root of the blade while two further clamps (72b, 72c) directly contact an airfoil portion of the blade.
A hybrid magnet actuator (32a; 32b) comprising: a magnet yoke (70a; 70b); a coil (74a; 74b) for providing a magnetic field inside of said magnet yoke in response to an electric current or in response to terminating said electric current; a permanent magnet assembly (73a; 73b), configured to move relative to said magnet yoke in response to the magnetic field generated by said coil, for providing a further magnetic field outside of said magnet yoke in certain positions of said permanent magnet assembly; and an anchor plate (72a; 72b), responsive to said further magnetic field, wherein the anchor plate, when said further magnetic field is not provided, is not in a physical contact with said magnet yoke and moves freely relative to said magnet yoke, but said anchor plate, when said further magnetic field is provided, is placed in a physical contact with said magnet yoke in response to said further magnetic field and active friction braking restricting said movement of the anchor plate relative to said magnet yoke is provided by a friction between said anchor plate and said magnet yoke thus facilitating retarding feedback haptic applications using said active friction braking. a magnet yoke (70a; 70b); a coil (74a; 74b) for providing a magnetic field inside of said magnet yoke in response to an electric current or in response to terminating said electric current; a permanent magnet assembly (73a; 73b), configured to move relative to said magnet yoke in response to the magnetic field generated by said coil, for providing a further magnetic field outside of said magnet yoke in certain positions of said permanent magnet assembly; and an anchor plate (72a; 72b), responsive to said further magnetic field, wherein
A counter-rotating turbine of a turbomachine extending about an axis of rotation and comprising: - an inner rotor configured to rotate about the axis of rotation, and comprising at least one inner moving blade rotatably supported by a first shaft, - an outer rotor configured to rotate about the axis of rotation in an opposite direction to the inner rotor, and comprising at least one outer moving blade rotatably supported by a second shaft coaxial with the first shaft, the first and second shafts (24, 26) extending axially from upstream to downstream of the turbine, wherein the first shaft is guided in rotation by a first bearing disposed between the first shaft and an upstream casing of the turbine, and the second shaft is guided in rotation by a second bearing disposed between the second shaft and the first shaft, characterized in that the first bearing and the second bearing are disposed substantially in line with each other along the axis of rotation upstream of a first stage of the inner rotor. - an inner rotor configured to rotate about the axis of rotation, and comprising at least one inner moving blade rotatably supported by a first shaft, - an outer rotor configured to rotate about the axis of rotation in an opposite direction to the inner rotor, and comprising at least one outer moving blade rotatably supported by a second shaft coaxial with the first shaft, the first and second shafts (24, 26) extending axially from upstream to downstream of the turbine,
An all solid state battery comprising a cathode layer, an anode layer, and a solid electrolyte layer formed between the cathode layer and the anode layer; wherein the anode layer contains a Si-based active material of which average particle size is less than 2.6 μm, and a first solid electrolyte, characterized in that a coating layer containing a second solid electrolyte is formed on a surface of the Si-based active material, a coverage of the coating layer is 70% or more, and the second solid electrolyte is a sulfide solid electrolyte, wherein the average particle size of the Si-based active material is defined as D 50 and calculated from the measurement with a laser diffraction particle distribution meter or a scanning electron microscope. the anode layer contains a Si-based active material of which average particle size is less than 2.6 μm, and a first solid electrolyte, characterized in that a coating layer containing a second solid electrolyte is formed on a surface of the Si-based active material, a coverage of the coating layer is 70% or more, and the second solid electrolyte is a sulfide solid electrolyte, wherein the average particle size of the Si-based active material is defined as D 50 and calculated from the measurement with a laser diffraction particle distribution meter or a scanning electron microscope.
A battery having rod cells arranged next to one another in a plurality of rows and parallel and serially electrically connected to one another to form at least one cell block (3 - 6), which rod cells are in thermally conductive contact with at least one cooling element, characterised in that end-side electrical contacts (13, 14) of a row of rod cells extending over a width of the battery are in each case electrically connected to one another in parallel by means of a common contact plate and these contact plates are in thermally-conductive connection with a flat heat exchanger, which extends parallel to it and through which liquid flows, which heat exchanger consists of a film material forming a heat exchange pocket, wherein, parallel to the heat exchange pocket, a pressure pocket at least approximately corresponding to the size thereof and filled with a compressible medium.
A control circuit for a component of an electronic device, the control circuit comprising: a controller having a full power mode and a sleep mode, the sleep mode having a slower duty cycle relative to the full power mode, the duty cycle of the full power mode and the duty cycle of the sleep mode each having an active portion in which data is read and an inactive portion in which data is not read; at least one force sensing transducer for measuring force data which is connected to the controller; wherein the controller is configured for: initiating the sleep mode from the full power mode in response to a trigger; when in the sleep mode, reading force data measured by the force sensing transducer at the slower duty cycle relative to the full power mode; comparing the force data to a wakeup force threshold; returning to the full power mode from the sleep mode when the force data is greater than the wakeup force threshold; and after reading force data exceeding said wakeup force threshold for a predetermined duration of time indicative of a press and hold action, transmitting signals to return the electronic device to a full power mode. a controller having a full power mode and a sleep mode, the sleep mode having a slower duty cycle relative to the full power mode, the duty cycle of the full power mode and the duty cycle of the sleep mode each having an active portion in which data is read and an inactive portion in which data is not read; at least one force sensing transducer for measuring force data which is connected to the controller; wherein the controller is configured for: initiating the sleep mode from the full power mode in response to a trigger; when in the sleep mode, reading force data measured by the force sensing transducer at the slower duty cycle relative to the full power mode; comparing the force data to a wakeup force threshold; returning to the full power mode from the sleep mode when the force data is greater than the wakeup force threshold; and after reading force data exceeding said wakeup force threshold for a predetermined duration of time indicative of a press and hold action, transmitting signals to return the electronic device to a full power mode.