mhurhangee/ep-ind-claims huggingface dataset:
A vehicle seat (14, 16) for use in an autonomous driving vehicle, the vehicle seat comprising: a front-facing driver seat bottom; a rear-facing passenger seat bottom coupled to the front-facing driver seat bottom; and a two-sided seat back fixedly or pivotably coupled between the front-facing driver seat bottom and the rear-facing passenger seat bottom; wherein the front-facing driver seat bottom and the rear-facing passenger seat bottom are collectively adapted to be translated between a passenger configuration in which the front-facing driver seat bottom is disposed one or more of under and within an interior panel of the vehicle and a driver configuration in which the front-facing driver seat bottom is disposed in a spaced-apart relationship with the interior panel of the vehicle; and wherein, when pivotable, the two-sided seat back is adapted to be pivotably biased towards a front of the vehicle in the passenger configuration and towards a rear of the vehicle in the driver configuration. a front-facing driver seat bottom; a rear-facing passenger seat bottom coupled to the front-facing driver seat bottom; and a two-sided seat back fixedly or pivotably coupled between the front-facing driver seat bottom and the rear-facing passenger seat bottom; wherein the front-facing driver seat bottom and the rear-facing passenger seat bottom are collectively adapted to be translated between a passenger configuration in which the front-facing driver seat bottom is disposed one or more of under and within an interior panel of the vehicle and a driver configuration in which the front-facing driver seat bottom is disposed in a spaced-apart relationship with the interior panel of the vehicle; and wherein, when pivotable, the two-sided seat back is adapted to be pivotably biased towards a front of the vehicle in the passenger configuration and towards a rear of the vehicle in the driver configuration.
A process for preparing a flexible packaging material comprising: - providing a first flexible substrate coated with a primer comprising poly(acrylic acid) and/or poly(methacrylic acid); - printing a liquid electrophotographic printing ink composition onto the surface of the first flexible substrate; - extruding a thermally activatable laminating material onto a surface of a second flexible substrate; and - contacting, under conditions of temperature greater or equal to 50°C, the surface of the second flexible substrate on which the thermally activatable laminating material is deposited with the surface of the first flexible substrate printed with the liquid electrophotographic printing ink composition. - providing a first flexible substrate coated with a primer comprising poly(acrylic acid) and/or poly(methacrylic acid); - printing a liquid electrophotographic printing ink composition onto the surface of the first flexible substrate; - extruding a thermally activatable laminating material onto a surface of a second flexible substrate; and - contacting, under conditions of temperature greater or equal to 50°C, the surface of the second flexible substrate on which the thermally activatable laminating material is deposited with the surface of the first flexible substrate printed with the liquid electrophotographic printing ink composition.
Method for controlling power consumption during a rock drilling process using a rock drilling apparatus when there are limitations regarding available power, wherein power supplying means provide power to the rock drilling process, which includes a number of sub-processes, the method comprising the steps of: - determining a parameter value representing a total available power for the rock drilling process, - controlling the power distribution between the sub-processes of the rock drilling process such that the total power consumption of the sub-processes does not exceed the total available power, and - providing the sub-processes with various priorities, wherein the process(es) having highest priority is power supplied first. - determining a parameter value representing a total available power for the rock drilling process, - controlling the power distribution between the sub-processes of the rock drilling process such that the total power consumption of the sub-processes does not exceed the total available power, and - providing the sub-processes with various priorities, wherein the process(es) having highest priority is power supplied first.
A method of UV curable inkjet printing on a cuboid shaped object (1, 2, 3) including the steps of: a) bringing and holding at least part of an inkjet printing device (32, 33, 36, 37) in physical contact with the cuboid shaped object; and b) jetting and UV curing an image of one or more UV curable inks on at least one vertical panel of the cuboid shaped object; wherein the cuboid shaped object is an intermodal freight container. a) bringing and holding at least part of an inkjet printing device (32, 33, 36, 37) in physical contact with the cuboid shaped object; and b) jetting and UV curing an image of one or more UV curable inks on at least one vertical panel of the cuboid shaped object;
A cloud service control device, comprising: a first communicator configured to control communication with a cloud service providing a plant control function of controlling a plant; a second communicator configured to control communication with a first device using service information related to the cloud service; a verifier configured to verify an operation state of the cloud service; a selector configured to select the cloud service on the basis of the verified operation state; and an information transferor configured to transfer the service information between the selected cloud service and the first device, characterised in that the information transferor is configured to limit a transfer of the service information in accordance with the first device, the information transferor is configured to limit the transfer of the service information in accordance with the first device on the basis of an association list in which the first device is associated with the service information transferable to the first device, the second communicator is further configured to control communication with a second device (304, 305) which uses the service information related to the cloud service and which is located outside an internal system in a range of a network in which security is secured, and the information transferor is configured to limit the service information to be transmitted to the second device (304, 305) by referring to setting information in which the service information and the second device (304, 305) to which the service information can be transmitted are associated in advance. a first communicator configured to control communication with a cloud service providing a plant control function of controlling a plant; a second communicator configured to control communication with a first device using service information related to the cloud service; a verifier configured to verify an operation state of the cloud service; a selector configured to select the cloud service on the basis of the verified operation state; and an information transferor configured to transfer the service information between the selected cloud service and the first device, characterised in that the information transferor is configured to limit a transfer of the service information in accordance with the first device, the information transferor is configured to limit the transfer of the service information in accordance with the first device on the basis of an association list in which the first device is associated with the service information transferable to the first device, the second communicator is further configured to control communication with a second device (304, 305) which uses the service information related to the cloud service and which is located outside an internal system in a range of a network in which security is secured, and the information transferor is configured to limit the service information to be transmitted to the second device (304, 305) by referring to setting information in which the service information and the second device (304, 305) to which the service information can be transmitted are associated in advance.
A method of producing a blended fuel composition comprising combining: about 5 vol.% to about 95 vol.% of synthetic paraffinic diesel that is a hydroprocessed biorenewable feedstock comprising a hydrotreated and hydroisomerized biorenewable feedstock; about 5 vol.% to about 95 vol.% of a biodiesel that comprises a distilled biodiesel, a biodiesel with a Modified CSFBT Test Procedure score of less than about 4.0, or both, wherein a volume ratio of synthetic paraffinic diesel to biodiesel in the blended fuel composition is about 10:90 to about 90:10; and about 0 vol.% to about 90 vol.% of a petroleum diesel, provided that at least about 8 vol.% biodiesel is included when the blended fuel composition does not include the petroleum diesel; to produce the blended fuel composition, wherein the "biodiesel" consists of fatty acid C 1 -C 4 alkyl esters produced by esterification and/or transesterification reactions between a C1-C4 alkyl alcohol and free fatty acids and/or fatty acid glycerides; "petroleum diesel" is a diesel fuel produced from crude oil; and wherein the Modified CSFBT Test Procedure is as defined in the description; wherein "about" provides an error margin of up to plus or minus 5%. about 5 vol.% to about 95 vol.% of synthetic paraffinic diesel that is a hydroprocessed biorenewable feedstock comprising a hydrotreated and hydroisomerized biorenewable feedstock; about 5 vol.% to about 95 vol.% of a biodiesel that comprises a distilled biodiesel, a biodiesel with a Modified CSFBT Test Procedure score of less than about 4.0, or both, wherein a volume ratio of synthetic paraffinic diesel to biodiesel in the blended fuel composition is about 10:90 to about 90:10; and about 0 vol.% to about 90 vol.% of a petroleum diesel, provided that at least about 8 vol.% biodiesel is included when the blended fuel composition does not include the petroleum diesel; to produce the blended fuel composition, wherein the "biodiesel" consists of fatty acid C 1 -C 4 alkyl esters produced by esterification and/or transesterification reactions between a C1-C4 alkyl alcohol and free fatty acids and/or fatty acid glycerides; "petroleum diesel" is a diesel fuel produced from crude oil; and wherein the Modified CSFBT Test Procedure is as defined in the description; wherein "about" provides an error margin of up to plus or minus 5%.
A distributor of fluid, in particular coolant, for use in a heat exchanger, which distributor comprises a main body, which main body bears a plurality of elongated longitudinal seats, each one suitable to receive a respective metallic tubular member wherein, upon use, the fluid flows, each one of said elongated seats having a first tract with smaller cross-section, suitable to receive a respective tubular member, and a second tract with bigger cross-section, characterised in that externally to each one of said elongated seats a transversal abutment profile being further obtained, suitable for coupling with the end of a tube of the exchanger and/or with a tube plate of the latter, which tube is arranged, upon use, circumscribed to the respective metallic tubular member, wherein, at each second tract of said elongated seats, said main body comprises an engagement member suitable to fit in a respective tube of the exchanger according to said arrangement circumscribed to the tubular member.
An oil return control method for a multi-connection system, the multi-connection system comprising a plurality of indoor units, at least one of which is not turned on, wherein the oil return control method comprises: determining an oil storage quantity q of all the indoor units; determining a system oil return time T of the multi-connection system; determining a current opening degree k of an expansion valve of one indoor unit that is not turned on according to the oil storage quantity q and the system oil return time T; characterized in that the oil return method further comprises: comparing the current opening degree k with a maximum opening degree threshold k smax and a minimum opening degree threshold k smin; and selectively adjusting the opening degree of the expansion valve of the one indoor unit that is not turned on according to a comparison result, and keeping the expansion valve operating at the adjusted opening degree for the system oil return time T. determining an oil storage quantity q of all the indoor units; determining a system oil return time T of the multi-connection system; determining a current opening degree k of an expansion valve of one indoor unit that is not turned on according to the oil storage quantity q and the system oil return time T; comparing the current opening degree k with a maximum opening degree threshold k smax and a minimum opening degree threshold k smin; and selectively adjusting the opening degree of the expansion valve of the one indoor unit that is not turned on according to a comparison result, and keeping the expansion valve operating at the adjusted opening degree for the system oil return time T.
A housing to be placed alongside a duct for guiding cables or electrical conductors, including on the one hand a frame, which, in one of the sides thereof by which it must cooperate with the duct, has an opening (111 A), and on the other hand a canopy that extends from the frame, matching said opening (111 A) therein, and is intended to cover the duct locally, characterised in that said canopy is a rigid part that is joined by a connection piece forming an articulation hinge to a fixed rigid part that is fitted solidarily with said frame.
A thermal processing and consolidation system, comprising: an upper assembly; a lower assembly, at least one of the upper assembly or the lower assembly being a chamber assembly, the upper assembly and the lower assembly movable relative to one another between an opened position where the upper assembly and the lower assembly are detached from one another, and a closed position where the upper assembly and the lower assembly are coupled to one another and form an enclosed plenum for receiving a tool; characterized in that an air impingement device is arranged at least partially in the plenum, and configured to direct forced flows of air at the tool when the tool is received in the plenum wherein the air impingement device comprises a diffuser having a perforated wall including exit holes configured to face the tool when the tool is received in the plenum, a closed wall arranged opposite and inclined with respect to the perforated wall, the closed wall is configured to deflect a forced air flow toward the perforated wall and cause the deflected forced air flow to exit from the exit holes of the perforated wall as the forced flows of air, and the exit holes of the perforated wall are configured to direct the forced flows of air exiting from the exit holes toward the tool when the tool is received in the plenum. an upper assembly; a lower assembly, at least one of the upper assembly or the lower assembly being a chamber assembly, the upper assembly and the lower assembly movable relative to one another between an opened position where the upper assembly and the lower assembly are detached from one another, and a closed position where the upper assembly and the lower assembly are coupled to one another and form an enclosed plenum for receiving a tool; characterized in that an air impingement device is arranged at least partially in the plenum, and configured to direct forced flows of air at the tool when the tool is received in the plenum wherein the air impingement device comprises a diffuser having a perforated wall including exit holes configured to face the tool when the tool is received in the plenum, a closed wall arranged opposite and inclined with respect to the perforated wall, the closed wall is configured to deflect a forced air flow toward the perforated wall and cause the deflected forced air flow to exit from the exit holes of the perforated wall as the forced flows of air, and the exit holes of the perforated wall are configured to direct the forced flows of air exiting from the exit holes toward the tool when the tool is received in the plenum.
A method of a seeker device for providing service discovery in a wireless Universal Serial Bus, communication system, the method comprising the steps of: generating, by the seeker device, a probe request (400; 500; 600) for service discovery, the probe request including hash pairs for a service that the seeker device is searching for, wherein the hash pairs include multiple hash values corresponding to a service name, USB class information and sub class information of the service to identify at least one advertiser device at which the service is available; transmitting, by a wireless broadcasting transmitter of the seeker device, the probe request; and receiving, by a wireless receiver of the seeker device, at least one probe response from the at least one advertiser device which has a hash set matching the hash pairs in the probe request, characterized in that the probe response includes information regarding the hash pairs in the probe request. generating, by the seeker device, a probe request (400; 500; 600) for service discovery, the probe request including hash pairs for a service that the seeker device is searching for, wherein the hash pairs include multiple hash values corresponding to a service name, USB class information and sub class information of the service to identify at least one advertiser device at which the service is available; transmitting, by a wireless broadcasting transmitter of the seeker device, the probe request; and receiving, by a wireless receiver of the seeker device, at least one probe response from the at least one advertiser device which has a hash set matching the hash pairs in the probe request, characterized in that the probe response includes information regarding the hash pairs in the probe request.
A system comprising: a high-level controller configured for communicating with a physical asset via a network through a network connection, the high-level controller configured to execute a first finite state machine for controlling the physical asset during a normal mode of operation; and a low-level controller communicatively coupled to the high-level controller via the network, the low-level controller being configured to execute a second finite state machine for controlling the physical asset during a default mode of operation, wherein the first state machine includes all the states of the second state machine, the second finite state machine being configured to place the low-level controller in the default mode of operation upon detecting a loss of communications between the high-level controller and the low-level controller; wherein the high-level controller includes a synchronizer configured to provide configuration information to the low-level controller for configuring the second finite state machine to transition from any state to the default state when the first finite state machine is controlling the physical asset by utilizing a revised first finite state machine and executes at least one additional state in the revised first finite state machine that is not included in the second finite state machine; wherein the low-level controller is configured to revert to the default state of the second finite state machine when the high-level controller is executing the at least one additional state in the revised first finite state machine. a high-level controller configured for communicating with a physical asset via a network through a network connection, the high-level controller configured to execute a first finite state machine for controlling the physical asset during a normal mode of operation; and a low-level controller communicatively coupled to the high-level controller via the network, the low-level controller being configured to execute a second finite state machine for controlling the physical asset during a default mode of operation, wherein the first state machine includes all the states of the second state machine, the second finite state machine being configured to place the low-level controller in the default mode of operation upon detecting a loss of communications between the high-level controller and the low-level controller; wherein the high-level controller includes a synchronizer configured to provide configuration information to the low-level controller for configuring the second finite state machine to transition from any state to the default state when the first finite state machine is controlling the physical asset by utilizing a revised first finite state machine and executes at least one additional state in the revised first finite state machine that is not included in the second finite state machine; wherein the low-level controller is configured to revert to the default state of the second finite state machine when the high-level controller is executing the at least one additional state in the revised first finite state machine.
An apparatus comprising: a cabinet comprising a kickboard and defining an upper section and a lower section, where the lower section is fronted by the kickboard; and a vacuum hose storage system comprising: a vacuum unit; a storage tube; and a vacuum hose, wherein: the vacuum unit is fluidly connected to the storage tube; the vacuum unit is operable to generate a partial vacuum within the storage tube; and the vacuum hose can be drawn into the storage tube by the partial vacuum within the storage tube, wherein the vacuum hose storage system is installed within the cabinet, characterised in that the storage tube is located within the lower section of the cabinet and behind the kickboard. a cabinet comprising a kickboard and defining an upper section and a lower section, where the lower section is fronted by the kickboard; and a vacuum hose storage system comprising: a vacuum unit; a storage tube; and a vacuum hose, a vacuum unit; a storage tube; and a vacuum hose, wherein: the vacuum unit is fluidly connected to the storage tube; the vacuum unit is operable to generate a partial vacuum within the storage tube; and the vacuum hose can be drawn into the storage tube by the partial the vacuum unit is fluidly connected to the storage tube; the vacuum unit is operable to generate a partial vacuum within the storage tube; and the vacuum hose can be drawn into the storage tube by the partial vacuum within the storage tube,