mhurhangee/ep-ind-claims huggingface dataset:
A baler arrangement, comprising: a baler configured to collect crop material and form a bale from the crop material, the baler including a preservative application subsystem with a nozzle apparatus configured to spray the bale with a fluid during operation; a sensor associated with the nozzle apparatus and configured to collect vibration patterns of sound emanating from the nozzle apparatus during the spraying of the fluid upon the bale; and a controller having a processor and memory architecture configured to: receive the vibration patterns collected by the sensor during the spraying of the fluid upon the respective bale; evaluate the vibration patterns for the at least one nozzle for a clog condition; and record, upon detecting the clog condition based on the vibration patterns, information associated with clog condition, wherein the baler further includes an identification apparatus configured to attach an identification tag to the bale; and wherein the controller is configured to command the recording, upon detecting the clog condition, of the information associated with the clog condition on the identification tag attached by the identification apparatus to the bale. a baler configured to collect crop material and form a bale from the crop material, the baler including a preservative application subsystem with a nozzle apparatus configured to spray the bale with a fluid during operation; a sensor associated with the nozzle apparatus and configured to collect vibration patterns of sound emanating from the nozzle apparatus during the spraying of the fluid upon the bale; and a controller having a processor and memory architecture configured to: receive the vibration patterns collected by the sensor during the spraying of the fluid upon the respective bale; evaluate the vibration patterns for the at least one nozzle for a clog condition; and record, upon detecting the clog condition based on the vibration patterns, information associated with clog condition, wherein the baler further includes an identification apparatus configured to attach an identification tag to the bale; and wherein the controller is configured to command the recording, upon detecting the clog condition, of the information associated with the clog condition on the identification tag attached by the identification apparatus to the bale. receive the vibration patterns collected by the sensor during the spraying of the fluid upon the respective bale; evaluate the vibration patterns for the at least one nozzle for a clog condition; and record, upon detecting the clog condition based on the vibration patterns, information associated with clog condition, wherein the baler further includes an identification apparatus configured to attach an identification tag to the bale; and wherein the controller is configured to command the recording, upon detecting the clog condition, of the information associated with the clog condition on the identification tag attached by the identification apparatus to the bale.
A method for operating a vehicle mountable controller mounted to a vehicle and controlling at least part of the vehicles operation, as computer network element in a computer network, wherein idle controller resource of the vehicle mountable controller is provided for remote processing to the computer network, characterized in that the idle controller resource is provided by - determining the operating mode of the vehicle the vehicle mountable controller is mounted to, and - performing a test for determining whether to use the vehicle mountable controller as network element or not depending on the operating mode of the vehicle, at the time the test is performed. - determining the operating mode of the vehicle the vehicle mountable controller is mounted to, and - performing a test for determining whether to use the vehicle mountable controller as network element or not depending on the operating mode of the vehicle, at the time the test is performed.
A method, comprising a service gateway: receiving a plurality of packets associated with a flow, each packet having a sequence number range; parsing the plurality of packets associated with the flow; executing a first quality of service decision wherein if a first set of packets within the plurality of packets comply with a quality of service policy, the first set of packets is forwarded to its intended destination, and, if not the first set of packets is not forwarded to their intended destination and an entry in a table is generated for the first set of packets wherein the entry includes a range of sequence numbers; receiving a second set of packets, having a sequence number range and comparing the sequence number range with the table entry to identify retransmission of at least a portion of the first set of packets; in the event of a match, executing a second quality of service decision such that the second set of packets is forwarded to their intended destination, wherein the second set of packets is not parsed a second time; and billing the second set of packets in response to forwarding the second set of packets. receiving a plurality of packets associated with a flow, each packet having a sequence number range; parsing the plurality of packets associated with the flow; executing a first quality of service decision wherein if a first set of packets within the plurality of packets comply with a quality of service policy, the first set of packets is forwarded to its intended destination, and, if not the first set of packets is not forwarded to their intended destination and an entry in a table is generated for the first set of packets wherein the entry includes a range of sequence numbers; receiving a second set of packets, having a sequence number range and comparing the sequence number range with the table entry to identify retransmission of at least a portion of the first set of packets; in the event of a match, executing a second quality of service decision such that the second set of packets is forwarded to their intended destination, wherein the second set of packets is not parsed a second time; and billing the second set of packets in response to forwarding the second set of packets.
Method for determining the signal quality of a CAN-protocol-based communication network having a bus and two or more subscribers communicating via the latter by means of data telegrams, characterized in that the duration (D ACK) of an acknowledgement signal that is sent by at least one of the subscribers as a result of the reception of a data telegram is ascertained and evaluated.
A method for producing a metal member (10, 110, 210) having an oxide film (14, 114, 214) formed on a surface of a metal substrate formed from a metal, the method comprising: a first step of heating the surface of the metal substrate and forming the oxide film (14, 114, 214) on the surface of the metal substrate; and a second step of heating at least a portion of the oxide film (14, 114, 214) and increasing a joining strength of the oxide film (14, 114, 214) to the metal substrate, wherein the oxide film (14, 114, 214) includes molten parts (14a, 114a, 214a) formed by melting of the metal substrate, and peripheral parts (14b, 114b, 214b) formed by scattering of a metal from the molten parts (14a, 114a, 214a), the first step includes a process of forming a plurality of the molten parts (14a, 114a, 214a) at shifted positions by localized heating of the surface of the metal substrate, such that the peripheral parts (14b, 114b, 214b) formed around the adjacent molten parts overlap at least partially with one another, and the second step includes a process of heating at least a portion of the peripheral parts (14b, 114b, 214b) already formed on the surface of the metal substrate by thermal conduction, the heating being achieved by the heat supplied to the surface of the metal substrate in the first step, and increasing a joining strength of the peripheral parts (14b, 114b, 214b) to the metal substrate. a first step of heating the surface of the metal substrate and forming the oxide film (14, 114, 214) on the surface of the metal substrate; and a second step of heating at least a portion of the oxide film (14, 114, 214) and increasing a joining strength of the oxide film (14, 114, 214) to the metal substrate, wherein the oxide film (14, 114, 214) includes molten parts (14a, 114a, 214a) formed by melting of the metal substrate, and peripheral parts (14b, 114b, 214b) formed by scattering of a metal from the molten parts (14a, 114a, 214a), the first step includes a process of forming a plurality of the molten parts (14a, 114a, 214a) at shifted positions by localized heating of the surface of the metal substrate, such that the peripheral parts (14b, 114b, 214b) formed around the adjacent molten parts overlap at least partially with one another, and the second step includes a process of heating at least a portion of the peripheral parts (14b, 114b, 214b) already formed on the surface of the metal substrate by thermal conduction, the heating being achieved by the heat supplied to the surface of the metal substrate in the first step, and increasing a joining strength of the peripheral parts (14b, 114b, 214b) to the metal substrate.
Device for fixing a pushing element to a rail of a pull-out guide, comprising: - a pushing element having an adapter on which a bearing surface is formed; - a rail of a pull-out guide, which at least partially rests on the bearing surface of the adapter; - a holder which embraces an end section of the adapter and an end (13, 18) of the rail or a component connected to the rail; characterized in that a latching projection is formed integrally with the adapter or the rail and engages in a latch receiver (11, 12) on the rail or the adapter. - a pushing element having an adapter on which a bearing surface is formed; - a rail of a pull-out guide, which at least partially rests on the bearing surface of the adapter; - a holder which embraces an end section of the adapter and an end (13, 18) of the rail or a component connected to the rail;
A compound having the structure I wherein n is 0 or 1, X is CH; R1 and R2 are each selected independently from the group consisting of H; C1-C6 alkyl; C1-C6 alkyl(C3-C8)cycloalkyl; C1-C6 hydroxyalkyl; C1-C6 alkoxy; CH2CN; CH2C NH2; C1-C6 arylalkyl; and C1-C6 alkyl-heterocycloalkyl; halogen; and hydroxy; R3 and R4 are each selected independently from the group consisting of H, OH, F, CH3, and OCH3; L is a linker selected from the group consisting of -CH 2 -CH 2 -, -CH=CH-, -CH 2 -S-, and -S-CH 2 -; and HET is a heteroaromatic group selected from the group consisting of [1,2,4]triazolo[1,5-a]pyrazine, [1,2,4]triazolo[1,5-a]pyridine and [1,2,4]Triazolo[1,5-a]pyrimidine, HET can be substituted with up to three substituents R5, R6 and R7 individually selected from the group consisting of H, CH3, and OCH3. and tautomers and pharmaceutically acceptable acid addition salts thereof, and polymorphic forms thereof. n is 0 or 1, X is CH; R1 and R2 are each selected independently from the group consisting of H; C1-C6 alkyl; C1-C6 alkyl(C3-C8)cycloalkyl; C1-C6 hydroxyalkyl; C1-C6 alkoxy; CH2CN; CH2C NH2; C1-C6 arylalkyl; and C1-C6 alkyl-heterocycloalkyl; halogen; and hydroxy; R3 and R4 are each selected independently from the group consisting of H, OH, F, CH3, and OCH3; L is a linker selected from the group consisting of -CH 2 -CH 2 -, -CH=CH-, -CH 2 -S-, and -S-CH 2 -; and HET is a heteroaromatic group selected from the group consisting of [1,2,4]triazolo[1,5-a]pyrazine, [1,2,4]triazolo[1,5-a]pyridine and [1,2,4]Triazolo[1,5-a]pyrimidine, HET can be substituted with up to three substituents R5, R6 and R7 individually selected from the group consisting of H, CH3, and OCH3.
A method for the analysis of an analyte, comprising: (i) incubating an element tag with an analyte, so that the element tag binds the analyte, wherein the element tag comprises a polymer, wherein the polymer comprises at least one metal-binding pendant group that comprises at least one metal atom, and wherein the element tag is covalently attached to a biomolecule; (ii) separating unbound tag elements from bound tag elements; and (iii) analyzing the bound tag elements by elemental analysis. (i) incubating an element tag with an analyte, so that the element tag binds the analyte, wherein the element tag comprises a polymer, wherein the polymer comprises at least one metal-binding pendant group that comprises at least one metal atom, and wherein the element tag is covalently attached to a biomolecule; (ii) separating unbound tag elements from bound tag elements; and (iii) analyzing the bound tag elements by elemental analysis.
Finish panel, comprising a front surface and a rear surface, wherein: - the front surface is smooth and, in use, is exposed to the sight of a user; - the rear surface, in use, is hidden from the sight of a user; - the panel thickness varies between a maximum and a minimum value in order to reproduce a predefined graphic solution, wherein the areas of the panel with minimum thickness correspond to the lighter areas of the graphic solution and the areas of the panel with maximum thickness correspond to darker areas of the graphic solution; and - the thickness is between 0.05 mm and 10 mm; characterized in that the areas of the panel with minimum thickness have a transparency of less than 40%. - the front surface is smooth and, in use, is exposed to the sight of a user; - the rear surface, in use, is hidden from the sight of a user; - the panel thickness varies between a maximum and a minimum value in order to reproduce a predefined graphic solution, wherein the areas of the panel with minimum thickness correspond to the lighter areas of the graphic solution and the areas of the panel with maximum thickness correspond to darker areas of the graphic solution; and - the thickness is between 0.05 mm and 10 mm; characterized in that the areas of the panel with minimum thickness have a transparency of less than 40%.
A method of wireless communication, operational at a scheduling entity, comprising: determining that interference is present from a neighboring scheduling entity that implements a second subcarrier spacing that is different from a first subcarrier spacing of the scheduling entity; characterized by: requesting the neighboring scheduling entity to negotiate a bandwidth group, wherein the BWG is a bandwidth occupied by downlink subcarriers within which a transmission parameter is maintained; negotiating a bandwidth of the bandwidth group; and transmitting, if negotiating is successful, downlink data to a scheduled entity served by the scheduling entity according to the bandwidth group. determining that interference is present from a neighboring scheduling entity that implements a second subcarrier spacing that is different from a first subcarrier spacing of the scheduling entity; characterized by: requesting the neighboring scheduling entity to negotiate a bandwidth group, wherein the BWG is a bandwidth occupied by downlink subcarriers within which a transmission parameter is maintained; negotiating a bandwidth of the bandwidth group; and transmitting, if negotiating is successful, downlink data to a scheduled entity served by the scheduling entity according to the bandwidth group. requesting the neighboring scheduling entity to negotiate a bandwidth group, wherein the BWG is a bandwidth occupied by downlink subcarriers within which a transmission parameter is maintained; negotiating a bandwidth of the bandwidth group; and transmitting, if negotiating is successful, downlink data to a scheduled entity served by the scheduling entity according to the bandwidth group.
A wearable device comprising: - an electronic circuit, - a power supply, - a switching circuit (23, 43) coupled between the electronic circuit and the power supply, and - an electromagnetic field detection circuit coupled to the switching circuit (23, 43) for detecting an electromagnetic field generated by an NFC transmitter within the detection range of the electromagnetic field detection circuit and for generating a trigger signal if an electromagnetic field generated by an NFC transmitter is detected within the detection range of the electromagnetic field detection circuit, characterized in that said switching circuit (23, 43) comprises a flip-flop to switch the connection between the electronic circuit and the power supply on in response to the trigger signal. - an electronic circuit, - a power supply, - a switching circuit (23, 43) coupled between the electronic circuit and the power supply, and - an electromagnetic field detection circuit coupled to the switching circuit (23, 43) for detecting an electromagnetic field generated by an NFC transmitter within the detection range of the electromagnetic field detection circuit and for generating a trigger signal if an electromagnetic field generated by an NFC transmitter is detected within the detection range of the electromagnetic field detection circuit,
A hydraulic flow sensing apparatus comprising: a manifold; a hole in the manifold in fluid communication with a first fluid pathway; a poppet valve in the hole in the manifold configured to move when fluid in the first fluid pathway flows; a proximity switch configured to detect movement of the poppet valve; a hydraulic circuit; and a directional control valve in fluid communication with the hydraulic circuit; a second poppet valve located in a second hole in the manifold and a second proximity switch configured to detect movement of the second poppet valve; a microcontroller operatively connected to the proximity switches and the directional control valve; a hydraulic pump in fluid communication with the first fluid pathway and configured to pressurize the fluid in the first fluid pathway, the hydraulic pump operatively connected to the microcontroller; a fluid reservoir (24, 90); and a second fluid pathway in fluid communication with the pump, the first fluid pathway, the fluid reservoir, and the poppet valves as to create the hydraulic circuit; hydraulic connectors (119, 112, 114, 116) configured to allow a hydraulic tool to be connected to the first and second fluid pathways; wherein the directional control valve is configured to change the direction of flow with in at least part of the first and second fluid pathways. a manifold; a hole in the manifold in fluid communication with a first fluid pathway; a poppet valve in the hole in the manifold configured to move when fluid in the first fluid pathway flows; a proximity switch configured to detect movement of the poppet valve; a hydraulic circuit; and
An anti-corrosion agent, especially for preserving cavities, containing: - at least one anti-corrosion additive, - at least one unsaturated compound, selected from unsaturated oils and/or unsaturated fatty acids, - at least one redox-active metal salt and/or metal oxide (3, 5), and - at least one compound which cross-links by radical polymerisation, characterised in that the redox-active metal salt or metal oxide (3, 5) is transparent, a proportion of the redox-active metal salt and/or metal oxide (3, 5) amounts to 0.0015 to 0.004 wt.%, relative to the total weight of the anti-corrosion agent, and the redox-active metal salt or metal oxide (3, 5) is an iron oxide. - at least one anti-corrosion additive, - at least one unsaturated compound, selected from unsaturated oils and/or unsaturated fatty acids, - at least one redox-active metal salt and/or metal oxide (3, 5), and - at least one compound which cross-links by radical polymerisation,
A displaying apparatus, comprising: a panel substrate; a plurality of light emitting devices (800, 802, 804, 806; 800'; 811; 813; 815) arranged on the panel substrate; and at least one connection tip disposed on one surface of each of the light emitting devices (800, 802, 804, 806; 800'; 811; 813; 815), wherein each of the light emitting devices (800, 802, 804, 806; 800'; 811; 813; 815) comprises: a light emitting structure comprising a first conductivity type semiconductor layer (23; 2110), a second conductivity type semiconductor layer (27; 2114) and an active layer (25; 2112) interposed between the first and second conductivity type semiconductor layers (23, 27; 2110, 2114); and first and second electrode pads (112, 114; 2122, 2124) disposed on the light emitting structure; wherein a plurality of connection tips is disposed on each of the light emitting devices; the plurality of connection tips disposed on each of the light emitting devices have different thicknesses; characterised in that the plurality of connection tips has a light transmission of 90% or more, and a refractive index between 1.4 and 1.7. a panel substrate; a plurality of light emitting devices (800, 802, 804, 806; 800'; 811; 813; 815) arranged on the panel substrate; and at least one connection tip disposed on one surface of each of the light emitting devices (800, 802, 804, 806; 800'; 811; 813; 815), wherein each of the light emitting devices (800, 802, 804, 806; 800'; 811; 813; 815) comprises: a light emitting structure comprising a first conductivity type semiconductor layer (23; 2110), a second conductivity type semiconductor layer (27; 2114) and an active layer (25; 2112) interposed between the first and second conductivity type semiconductor layers (23, 27; 2110, 2114); and first and second electrode pads (112, 114; 2122, 2124) disposed on the light emitting structure; a light emitting structure comprising a first conductivity type semiconductor layer (23; 2110), a second conductivity type semiconductor layer (27; 2114) and an active layer (25; 2112) interposed between the first and second conductivity type semiconductor layers (23, 27; 2110, 2114); and first and second electrode pads (112, 114; 2122, 2124) disposed on the light emitting structure; wherein a plurality of connection tips is disposed on each of the light emitting devices; the plurality of connection tips disposed on each of the light emitting devices have different thicknesses; characterised in that the plurality of connection tips has a light transmission of 90% or more, and a refractive index between 1.4 and 1.7.
A method of generating a protocol data unit, PDU, in a wireless communication system comprising terminals, the method comprising: receiving at least one service data unit, SDU, from an upper layer via a common logical channel, wherein the common logical channel is a common control channel, CCCH; adding a header to the received SDUs to generate the PDU, wherein the header includes at least one field, wherein the at least one field identifies a logical channel of the received SDU or a type of control element, CE; setting the at least one field to indicate that the at least one SDUs included in the generated PDU were received from the common control channel, wherein an index within the at least one field is set with a fixed value applied to all terminals to indicate the common control channel, and delivering the generated PDU to a lower layer. receiving at least one service data unit, SDU, from an upper layer via a common logical channel, wherein the common logical channel is a common control channel, CCCH; adding a header to the received SDUs to generate the PDU, wherein the header includes at least one field, wherein the at least one field identifies a logical channel of the received SDU or a type of control element, CE; setting the at least one field to indicate that the at least one SDUs included in the generated PDU were received from the common control channel, wherein an index within the at least one field is set with a fixed value applied to all terminals to indicate the common control channel, and delivering the generated PDU to a lower layer.