mhurhangee/patent-ind-claim-en huggingface dataset:
A method of electrostatic printing and glossing comprising: forming a first toner image on a print substrate by electrostatically printing an electrostatic ink comprising a first resin component comprising an ethylene acrylic acid resin, an ethylene methacrylic acid resin or combinations thereof; forming a second toner image disposed on the first toner image on the print substrate by electrostatically printing a liquid electrophotographic (LEP) printing composition comprising a first resin component comprising an ethylene acrylic acid resin, an ethylene methacrylic acid resin or combinations thereof, and a second resin component present in an amount of 20% to 80% by weight of total solids content of the LEP printing composition, the second resin component having a melting point - as measured according to the method disclosed in the description - of from 50oC to 75oC, which is below the melting point of the first resin component, or from 140oC to 180oC, which is above the melting point - as measured according to the method disclosed in the description - of the first resin component; and heating the print substrate to at least partially melt the first or second toner image. forming a first toner image on a print substrate by electrostatically printing an electrostatic ink comprising a first resin component comprising an ethylene acrylic acid resin, an ethylene methacrylic acid resin or combinations thereof; forming a second toner image disposed on the first toner image on the print substrate by electrostatically printing a liquid electrophotographic (LEP) printing composition comprising a first resin component comprising an ethylene acrylic acid resin, an ethylene methacrylic acid resin or combinations thereof, and a second resin component present in an amount of 20% to 80% by weight of total solids content of the LEP printing composition, the second resin component having a melting point - as measured according to the method disclosed in the description - of from 50oC to 75oC, which is below the melting point of the first resin component, or from 140oC to 180oC, which is above the melting point - as measured according to the method disclosed in the description - of the first resin component; and heating the print substrate to at least partially melt the first or second toner image.
A glove formed of an elastomeric material and having a surface , characterized in that a stabilized probiotic is provided on a part of the surface to form an active layer , and the part of the surface contacts the skin of the wearer when the glove is worn.
Method for wireless communication between a plurality of transmitter devices and at least one receiver device by means of a repeater device on the surface of the Earth, said transmitter devices transmitting messages in a frequency band of said transmitter devices that are received by said repeater device, said repeater device retransmitting in said frequency band the received messages to said at least one receiver device, characterised in that the method includes steps of: - collecting, by the repeater device , messages transmitted by transmitter devices and received by said repeater device during a collection window, - retransmission, by said repeater device, of said messages received during said collection window to the at least one receiver device, said messages received during the collection window being retransmitted so that at least two messages received non-simultaneously are retransmitted simultaneously to said at least one receiver device. - collecting, by the repeater device , messages transmitted by transmitter devices and received by said repeater device during a collection window, - retransmission, by said repeater device, of said messages received during said collection window to the at least one receiver device, said messages received during the collection window being retransmitted so that at least two messages received non-simultaneously are retransmitted simultaneously to said at least one receiver device.
A base element for connecting a data bus subscriber to a local bus , comprising: at least one interface for electrically and mechanically connecting to a data bus subscriber ; at least one switchable connection connectable with a first port to the local bus and a second port connected to the interface, wherein in a first switching state, data is conducted through the base element past the data bus subscriber and wherein in a second switching state, data is conducted to the interface to the data bus subscriber or data received from the data bus subscriber is sent via the at least one interface to the local bus , wherein the local bus is configured as a ring bus and the base element is configured to conduct data in the up and/or down direction and wherein the up direction is conducted unswitched through the base element . at least one interface for electrically and mechanically connecting to a data bus subscriber ; at least one switchable connection connectable with a first port to the local bus and a second port connected to the interface, wherein in a first switching state, data is conducted through the base element past the data bus subscriber and wherein in a second switching state, data is conducted to the interface to the data bus subscriber or data received from the data bus subscriber is sent via the at least one interface to the local bus , wherein the local bus is configured as a ring bus and the base element is configured to conduct data in the up and/or down direction and wherein the up direction is conducted unswitched through the base element .
A heat pump water-heater outdoor unit comprising: a cabinet that constitutes an outer casing; a refrigerant circuit that is constituted by annularly connecting a compressor , an air-refrigerant heat exchanger , an expansion valve , and a water-refrigerant heat exchanger that are provided in the cabinet by a refrigerant pipe, and in which a refrigerant circulates; and an electronic component configured to drive the compressor , characterized in that the outdoor unit further comprises a plurality of accumulators that are connected to the refrigerant pipe and constitute part of the refrigerant circuit and are disposed above the compressor in the cabinet , wherein the electronic component comprises a wide band gap semiconductor and is disposed in the cabinet in a state in which the electronic component is in contact with a lower surface of at least one of the accumulators . a cabinet that constitutes an outer casing; a refrigerant circuit that is constituted by annularly connecting a compressor , an air-refrigerant heat exchanger , an expansion valve , and a water-refrigerant heat exchanger that are provided in the cabinet by a refrigerant pipe, and in which a refrigerant circulates; and an electronic component configured to drive the compressor , characterized in that the outdoor unit further comprises a plurality of accumulators that are connected to the refrigerant pipe and constitute part of the refrigerant circuit and are disposed above the compressor in the cabinet , wherein the electronic component comprises a wide band gap semiconductor and is disposed in the cabinet in a state in which the electronic component is in contact with a lower surface of at least one of the accumulators .
Equipment to provide a digital print (P) on a building panel comprising a surface , the equipment comprising a conveyor , a digital drop application head , a dry ink application station and a dry ink removal station , wherein the conveyor is adapted to displace the building panel essentially horizontally under the digital drop application head , wherein the digital drop application head is adapted to apply a liquid binder on the surface , wherein the dry ink application station is adapted to apply dry ink comprising dry colourants on the liquid binder , the liquid binder being adapted to bond a part of the colourants to the surface , and wherein the dry ink removal station is adapted to remove non-bonded colourants from the surface after each application of liquid binder and dry ink , characterised in that the equipment further comprises a stabilizing station adapted to provide moisture and heat to stabilize said surface provided in the form of a powder surface, wherein the stabilization is made prior to the application of the liquid binder , and wherein the heat is provided by infrared, IR, lamps. wherein the conveyor is adapted to displace the building panel essentially horizontally under the digital drop application head , wherein the digital drop application head is adapted to apply a liquid binder on the surface , wherein the dry ink application station is adapted to apply dry ink comprising dry colourants on the liquid binder , the liquid binder being adapted to bond a part of the colourants to the surface , and wherein the dry ink removal station is adapted to remove non-bonded colourants from the surface after each application of liquid binder and dry ink , characterised in that the equipment further comprises a stabilizing station adapted to provide moisture and heat to stabilize said surface provided in the form of a powder surface, wherein the stabilization is made prior to the application of the liquid binder , and wherein the heat is provided by infrared, IR, lamps.
A method, the method performed by an apparatus and comprising: identifying one or more bandwidth parts of a component carrier of a cell to be allocated to a user equipment, UE; identifying a sounding reference signal, SRS, bandwidth configuration for each of the one or more bandwidth parts; identifying a bandwidth offset value for each of the one or more bandwidth parts, the bandwidth offset value indicates a number of resource blocks from an edge of the respective of the one or more bandwidth parts to start SRS transmissions by the UE; and transmitting the SRS bandwidth configuration and the bandwidth offset value to the UE. identifying one or more bandwidth parts of a component carrier of a cell to be allocated to a user equipment, UE; identifying a sounding reference signal, SRS, bandwidth configuration for each of the one or more bandwidth parts; identifying a bandwidth offset value for each of the one or more bandwidth parts, the bandwidth offset value indicates a number of resource blocks from an edge of the respective of the one or more bandwidth parts to start SRS transmissions by the UE; and transmitting the SRS bandwidth configuration and the bandwidth offset value to the UE.
Heat exchanger, comprising a tube bundle held in a holding frame and composed of a plurality of tube discs arranged one on top of the other, each tube comprising tube windings wound up next to one another in a planar manner forming one tube disc, and comprising at least one spacer which positions the tube windings at a defined distance from one another, characterised in that the spacer comprises a holding comb having a number of holding grooves that corresponds to the number of tube windings wound up one next to the other and in that each holding groove is assigned a positioning jig which interacts with the holding comb and has a number of U-shaped recesses arranged one next to the other that corresponds to the number of tube discs arranged one on top of the other, or in that the spacer comprises a holding comb having a number of holding grooves that corresponds to the number of tube discs arranged one on top of the other and in that each holding groove is assigned a positioning jig which interacts with the holding comb and has a number of U-shaped recesses arranged one next to the other that corresponds to the number of tube windings wound up one next to the other.
A method for use in a transmitting apparatus, comprising: composing, on a medium access control, MAC, layer, a MAC layer packet data unit, PDU, having a predetermined length, including a plurality of MAC layer service data units, SDUs, each of the plurality of MAC layer SDUs including a header indicating a length of each of the MAC layer SDUs, inserting a certain number of the plurality of the MAC layer SDUs into the MAC layer PDU corresponding to the predetermined length of the MAC layer PDU, determining a remaining portion of the MAC layer PDU, determining whether a last one of the certain number of the plurality of MAC layer SDUs does not fit completely into the remaining portion of the MAC layer PDU, in response to determining whether the last one of the certain number of the plurality of MAC layer SDUs does not fit completely into the remaining portion of the MAC layer PDU, segmenting the last one of the certain number of the plurality of MAC layer SDUs into a first part and a second part according to the predetermined length of the MAC layer PDU, and inserting the first part of the segmented MAC layer SDU into the remaining portion of the MAC layer PDU without changing the header field of the segmented MAC layer SDU such that the header of the segmented MAC layer SDU indicates the original length of the segmented MAC layer SDU, which allows a receiving apparatus to compare the length indicated in the header of the last one of the plurality of MAC layer SDUs with a determined length of the last one of the plurality of MAC layer SDUs included in the MAC layer PDU, determining whether the length indicated in the header of the last one of the plurality of MAC layer SDUs is equal to the determined length of the last one of the plurality of MAC layer SDUs, and in response to determining that the lengths are not equal, determining that the last MAC layer SDU included in the MAC layer PDU has been segmented into a first SDU part and at least one second SDU part.
A method comprising: collecting flow records of traffic flow segments at a middlebox in a network environment corresponding to one or more traffic flows passing through the middlebox, the flow records including one or more transaction identifiers assigned to the traffic flow segments; identifying flow directions of the traffic flow segments in the network environment with respect to the middlebox using the flow records; maintaining a hash table of the traffic flow segments at the middlebox, the hash table including an entry corresponding to each traffic flow segment of the traffic flow segments, each entry including a transaction identifier of the one or more transaction identifiers assigned to the corresponding traffic flow segment; and grouping entries of the hash table of traffic flow segments having shared transaction identifiers to form grouped entries of the hash table; stitching together the traffic flow segments to form a stitched traffic flow of the one or more traffic flows passing through the middlebox in the network environment based on the grouped entries of the hash table and the flow directions of the traffic flow segments in the network environment with respect to the middlebox; and incorporating the stitched traffic flow as part of network traffic data for the network environment. collecting flow records of traffic flow segments at a middlebox in a network environment corresponding to one or more traffic flows passing through the middlebox, the flow records including one or more transaction identifiers assigned to the traffic flow segments; identifying flow directions of the traffic flow segments in the network environment with respect to the middlebox using the flow records; maintaining a hash table of the traffic flow segments at the middlebox, the hash table including an entry corresponding to each traffic flow segment of the traffic flow segments, each entry including a transaction identifier of the one or more transaction identifiers assigned to the corresponding traffic flow segment; and grouping entries of the hash table of traffic flow segments having shared transaction identifiers to form grouped entries of the hash table; stitching together the traffic flow segments to form a stitched traffic flow of the one or more traffic flows passing through the middlebox in the network environment based on the grouped entries of the hash table and the flow directions of the traffic flow segments in the network environment with respect to the middlebox; and incorporating the stitched traffic flow as part of network traffic data for the network environment.
A network device comprising: at least one processor ; and at least one memory including computer program code; the at least one memory and the computer program code configured to, with the at least one processor , cause the device to: in response to downlink data to be transmitted to a terminal device , determine , at the network device , a control resource set associated with the terminal device in a control resource region; select , from the control resource set, localized control resources for control information associated with the downlink data; select data resources for the downlink data in both the control resource region and a data resource region; transmit the control information to the terminal device by using the localized control resources; and transmit the downlink data to the terminal device by using the data resources. at least one processor ; and at least one memory including computer program code; the at least one memory and the computer program code configured to, with the at least one processor , cause the device to: in response to downlink data to be transmitted to a terminal device , determine , at the network device , a control resource set associated with the terminal device in a control resource region; select , from the control resource set, localized control resources for control information associated with the downlink data; select data resources for the downlink data in both the control resource region and a data resource region; transmit the control information to the terminal device by using the localized control resources; and transmit the downlink data to the terminal device by using the data resources. in response to downlink data to be transmitted to a terminal device , determine , at the network device , a control resource set associated with the terminal device in a control resource region; select , from the control resource set, localized control resources for control information associated with the downlink data; select data resources for the downlink data in both the control resource region and a data resource region; transmit the control information to the terminal device by using the localized control resources; and transmit the downlink data to the terminal device by using the data resources.
An insulating gate for a carabiner hook, comprising a core material , a first insulating layer , and a second insulating layer , wherein the core material comprises a free end and a connecting end ; the first insulating layer is provided on a surface of the core material , and forms an external threaded section between the free end and the connecting end ; the first insulating layer comprises a first insulating section and a second insulating section on the free end ; the second insulating section is located between the first insulating section and the external threaded section ; a color of the second insulating section is different from a color of the first insulating section ; a part of the core material corresponding to the first insulating section is coated with the first insulating layer , and a part of the core material corresponding to the second insulating section is partially coated with the first insulating layer ; a part of the first insulating layer corresponding to the second insulating section is coated with the second insulating layer , and a part of the core material corresponding to the second insulating section is coated with the second insulating layer ; the color of the second insulating section is different from a color of the external threaded section ; the free end has a recess having an inner surface; at least a part of the inner surface of the recess is not coated with at least one of the first insulating layer and the second insulating layer . the first insulating layer comprises a first insulating section and a second insulating section on the free end ; the second insulating section is located between the first insulating section and the external threaded section ; a color of the second insulating section is different from a color of the first insulating section ; a part of the core material corresponding to the first insulating section is coated with the first insulating layer , and a part of the core material corresponding to the second insulating section is partially coated with the first insulating layer ; a part of the first insulating layer corresponding to the second insulating section is coated with the second insulating layer , and a part of the core material corresponding to the second insulating section is coated with the second insulating layer ; the color of the second insulating section is different from a color of the external threaded section ; the free end has a recess having an inner surface; at least a part of the inner surface of the recess is not coated with at least one of the first insulating layer and the second insulating layer .
A method of mixing a plurality of fluids to make a High Internal Phase Emulsion, the method comprising mixing a first fluid with a second fluid, using a static mixer, wherein the static mixer is enabled to blend the first fluid and the second fluid flowing in a pipe without the use of rotating parts, wherein surfaces of the static mixer exhibit a first contact angle with the first fluid and a second contact angle with the second fluid, wherein the first contact angle is between zero and 30, and wherein the second contact angle is between zero and 30, and wherein the first fluid is an aqueous fluid and wherein the second fluid is a non-aqueous fluid.
A landing gear assembly of an aircraft comprising: a control system configured to output an amount of operation corresponding to an operated physical amount; a wheel ; a landing gear supported by a frame of the aircraft , and configured to rotatably support the wheel; a plurality of detection sensors, each configured not to output a detection signal when the aircraft flies in air, and to output the detection signal when the aircraft stays on ground, a steering system configured to steer the wheel using the amount of operation as a command value and orient rotation of the wheel in a longitudinal direction of the aircraft in disregard of the amount of operation; and the control system configured to steer the wheel , characterized in that when outputs of the plurality of detection sensors are not identical, and speed of the aircraft is higher than second limitation speed, the steering system orients rotation of the wheel in a longitudinal direction of the aircraft in disregard of the amount of operation. a control system configured to output an amount of operation corresponding to an operated physical amount; a wheel ; a landing gear supported by a frame of the aircraft , and configured to rotatably support the wheel; a plurality of detection sensors, each configured not to output a detection signal when the aircraft flies in air, and to output the detection signal when the aircraft stays on ground, a steering system configured to steer the wheel using the amount of operation as a command value and orient rotation of the wheel in a longitudinal direction of the aircraft in disregard of the amount of operation; and the control system configured to steer the wheel , characterized in that when outputs of the plurality of detection sensors are not identical, and speed of the aircraft is higher than second limitation speed, the steering system orients rotation of the wheel in a longitudinal direction of the aircraft in disregard of the amount of operation.