mhurhangee/ep-ind-claims huggingface dataset:
A battery swapping actuating mechanism, comprising: a base, a locking/unlocking unit for locking/unlocking a battery pack, a conveying unit for conveying the battery pack, and a lifting unit, wherein the lifting unit comprises a driving mechanism and a lifting/lowering portion that is able to be driven by the driving mechanism to ascend or descend; and the locking/unlocking unit is connected to the lifting/lowering portion and is able to ascend or descend along with the lifting/lowering portion, such that the top of the locking/unlocking unit is higher or lower than the conveying unit, and the conveying unit is supported on the base, and the locking/unlocking unit is connected to the lifting/lowering portion by means of a floating mechanism such that the locking/unlocking unit floats at least in a horizontal plane, characterized in that the floating mechanism comprises chains and columns, each of the chains has a first end connected to the lifting/lowering portion in a first direction (x) and a second end connected to a first end of a respective one of the columns, the columns are suspended to the lifting/lowering portion, and a second end of each of the columns secures the locking/unlocking unit in the first direction (x). the lifting unit comprises a driving mechanism and a lifting/lowering portion that is able to be driven by the driving mechanism to ascend or descend; and the locking/unlocking unit is connected to the lifting/lowering portion and is able to ascend or descend along with the lifting/lowering portion, such that the top of the locking/unlocking unit is higher or lower than the conveying unit, and the conveying unit is supported on the base, and the locking/unlocking unit is connected to the lifting/lowering portion by means of a floating mechanism such that the locking/unlocking unit floats at least in a horizontal plane, characterized in that the floating mechanism comprises chains and columns, each of the chains has a first end connected to the lifting/lowering portion in a first direction (x) and a second end connected to a first end of a respective one of the columns, the columns are suspended to the lifting/lowering portion, and a second end of each of the columns secures the locking/unlocking unit in the first direction (x).
A method for transmitting a service stream in a flexible Ethernet, comprising: obtaining a to-be-transmitted service stream, wherein the service stream is to be transmitted by using a target virtual connection supported by a physical connection group between a transmit end and a receive end, the physical connection group comprises multiple physical connections and supports at least one virtual connection, and the target virtual connection is any one of the at least one virtual connection; determining, from total bandwidth resources of the multiple physical connections and according to timeslot configuration tables used by the multiple physical connections, a timeslot bandwidth resource that belongs to the target virtual connection, wherein a timeslot configuration table used by each physical connection is used to indicate a virtual connection to which each timeslot bandwidth resource obtained by dividing a bandwidth resource of each physical connection belongs; and transmitting the service stream to the receive end by using the timeslot bandwidth resource that belongs to the target virtual connection, wherein an overhead code block transmitted over each physical connection comprises a first field, the first field indicates an identifier of the timeslot configuration table used by each physical connection, the overhead code block transmitted over each physical connection further comprises fields used for a management channel, and the management channel is used to: when the timeslot configuration table used by each physical connection changes, transmit content of a changed timeslot configuration table. obtaining a to-be-transmitted service stream, wherein the service stream is to be transmitted by using a target virtual connection supported by a physical connection group between a transmit end and a receive end, the physical connection group comprises multiple physical connections and supports at least one virtual connection, and the target virtual connection is any one of the at least one virtual connection; determining, from total bandwidth resources of the multiple physical connections and according to timeslot configuration tables used by the multiple physical connections, a timeslot bandwidth resource that belongs to the target virtual connection, wherein a timeslot configuration table used by each physical connection is used to indicate a virtual connection to which each timeslot bandwidth resource obtained by dividing a bandwidth resource of each physical connection belongs; and transmitting the service stream to the receive end by using the timeslot bandwidth resource that belongs to the target virtual connection, wherein an overhead code block transmitted over each physical connection comprises a first field, the first field indicates an identifier of the timeslot configuration table used by each physical connection, the overhead code block transmitted over each physical connection further comprises fields used for a management channel, and the management channel is used to: when the timeslot configuration table used by each physical connection changes, transmit content of a changed timeslot configuration table.
A system for preparing a target cell population for a therapeutic cellular treatment comprising: a) a separation unit for effecting separation of whole blood into two or more components including a target cell population; b) a treatment unit for treating said target cell population; c) a disposable fluid circuit comprising a patient access device, tubing defining a flow path between said patient access device and a separation chamber, a treatment chamber and one or more containers for collecting said target cell population; d) one or more pumps and one or more valves adapted to interact with said flow paths of said fluid circuit and effect flow of fluid through said flow paths; e) a detector configured to monitor the separation of whole blood into said two or more components; and f) a controller configured to i. receive signals from said detector; ii. initiate delivery of a priming solution to said fluid circuit wherein said priming solution is either saline or blood; iii. effect the operation of said one more pumps to combine at least a portion of saline that was used to prime said fluid circuit or where said priming solution is blood, a solution different from the priming fluid with said collected target cell population to arrive at a predetermined hematocrit of the target cell population for said therapeutic cellular treatment. a) a separation unit for effecting separation of whole blood into two or more components including a target cell population; b) a treatment unit for treating said target cell population; c) a disposable fluid circuit comprising a patient access device, tubing defining a flow path between said patient access device and a separation chamber, a treatment chamber and one or more containers for collecting said target cell population; d) one or more pumps and one or more valves adapted to interact with said flow paths of said fluid circuit and effect flow of fluid through said flow paths; e) a detector configured to monitor the separation of whole blood into said two or more components; and f) a controller configured to i. receive signals from said detector; ii. initiate delivery of a priming solution to said fluid circuit wherein said priming solution is either saline or blood; iii. effect the operation of said one more pumps to combine at least a portion of saline that was used to prime said fluid circuit or where said priming solution is blood, a solution different from the priming fluid with said collected target cell population to arrive at a predetermined hematocrit of the target cell population for said therapeutic cellular treatment. i. receive signals from said detector; ii. initiate delivery of a priming solution to said fluid circuit wherein said priming solution is either saline or blood; iii. effect the operation of said one more pumps to combine at least a portion of saline that was used to prime said fluid circuit or where said priming solution is blood, a solution different from the priming fluid with said collected target cell population to arrive at a predetermined hematocrit of the target cell population for said therapeutic cellular treatment.
A light deflector (100, 100b, 100c), comprising: a first electrode layer (110, 110b) and a second electrode layer that are spaced apart from each other and facing each other; and a deflection layer configured to deflect light incident thereon based on a voltage applied to the first electrode layer (110, 110b) and the second electrode layer, wherein the first electrode layer (110, 110b) comprises a plurality of electrode elements (210, 610) that are spaced apart from each other, and a resistor (220, 620) that is in contact with at least part of the plurality of electrode elements (210, 610) and in which a voltage drop is generated; characterized in that the light deflector further comprises a drive circuit (300, 300a) comprising at least a first and a second channel that are each connected to respectively first and second of the plurality of electrode elements and are each configured to output voltages to the respective first and second of the plurality of electrode elements, wherein a number of the first and second channels is less than a total number of the plurality of electrode elements (210, 610), wherein, with respect to a direction in which incident light travels, a partial area of the resistor (220, 620) overlaps with the electrode elements (210, 610) and a remaining area of the resistor (220, 620) does not overlap with the electrode elements (210, 610) and the second electrode layer has a flat panel shape facing the entire portion of the electrode elements (210, 610). a first electrode layer (110, 110b) and a second electrode layer that are spaced apart from each other and facing each other; and a deflection layer configured to deflect light incident thereon based on a voltage applied to the first electrode layer (110, 110b) and the second electrode layer, wherein the first electrode layer (110, 110b) comprises a plurality of electrode elements (210, 610) that are spaced apart from each other, and a resistor (220, 620) that is in contact with at least part of the plurality of electrode elements (210, 610) and in which a voltage drop is generated; characterized in that the light deflector further comprises a drive circuit (300, 300a) comprising at least a first and a second channel that are each connected to respectively first and second of the plurality of electrode elements and are each configured to output voltages to the respective first and second of the plurality of electrode elements, wherein a number of the first and second channels is less than a total number of the plurality of electrode elements (210, 610), wherein, with respect to a direction in which incident light travels, a partial area of the resistor (220, 620) overlaps with the electrode elements (210, 610) and a remaining area of the resistor (220, 620) does not overlap with the electrode elements (210, 610) and the second electrode layer has a flat panel shape facing the entire portion of the electrode elements (210, 610).
A hydraulic brake master cylinder (12; 112; 212) comprising a body (20; 114) having a bore (22; 122; 222), a piston (28; 128; 228) slidably mounted in the bore for movement between a retracted position and forward advanced positions, the piston having a seal (30; 130; 230) which engages the bore to define a working chamber (32; 132; 232) in the bore in front of the piston seal and a low pressure chamber (34; 134; 234) behind the piston seal, a pressure outlet port (41; 141; 241) from the working chamber for connection with one or more brake cylinders; characterised in that the master cylinder defines first (70; 170; 270) and second (72, 74; 186; 298) fluid flow paths for fluidly connecting the working chamber with a source of ambient pressure when the piston is in the retracted position, the first fluid flow path (70; 170; 270) having a minimum cross sectional area which is smaller than the minimum cross sectional area of the second fluid flow path (72, 74; 172; 298), there being a pressure relief valve (76; 276) in the second fluid flow path which is arranged to open to connect and to allow fluid flow from the working chamber towards the source of ambient pressure through the second flow path (72, 74; 186; 298) when subject to a pressure differential across the valve at or above a threshold value.
A spherical aluminum nitride powder having an average particle diameter of 3 to 30 μ m, a sphericalness corresponding to a short diameter of particle divided by a long diameter of particle of not less than 0.75, and an oxygen concentration which is not more than 0.9% by weight wherein, when said average particle diameter is d ( μ m), the specific surface area S (m 2 /g) satisfies the following formula, 1.84 / d ≦ S ≦ 1.84 / d + 0.5 wherein, "d" is said average particle diameter.
An image forming apparatus, comprising: a developing unit having toner and carrier therein, the developing unit including a toner/carrier ratio sensor arranged to receive a control signal and to generate an output voltage corresponding to a toner/carrier ratio in the developing unit; and a pulse width modulator arranged to supply the control signal to the toner/carrier ratio sensor corresponding to a pulse width modulation signal; and a controller arranged to control the pulse width modulator to supply the control signal to the toner/carrier ratio sensor, wherein the controller is arranged to automatically determine, when the developing unit is newly installed in the image forming apparatus, a duty ratio of the PWM signal by adjusting said duty ratio so that the output voltage generated by the toner/carrier ratio sensor included in the developing unit reaches a target value, wherein the controller is arranged to store the determined duty ratio of the PWM signal in the memory unit of the developing unit; wherein the controller is arranged to control the pulse width modulator to generate the PWM signal according to the duty ratio of the PWM signal stored in the memory unit, and to detect the output voltage output by the toner/carrier ratio sensor according to the generated PWM signal in order to determine the toner/carrier ratio in the developing unit. a developing unit having toner and carrier therein, the developing unit including a toner/carrier ratio sensor arranged to receive a control signal and to generate an output voltage corresponding to a toner/carrier ratio in the developing unit; and a pulse width modulator arranged to supply the control signal to the toner/carrier ratio sensor corresponding to a pulse width modulation signal; and a controller arranged to control the pulse width modulator to supply the control signal to the toner/carrier ratio sensor, wherein the controller is arranged to automatically determine, when the developing unit is newly installed in the image forming apparatus, a duty ratio of the PWM signal by adjusting said duty ratio so that the output voltage generated by the toner/carrier ratio sensor included in the developing unit reaches a target value, wherein the controller is arranged to store the determined duty ratio of the PWM signal in the memory unit of the developing unit; wherein the controller is arranged to control the pulse width modulator to generate the PWM signal according to the duty ratio of the PWM signal stored in the memory unit, and to detect the output voltage output by the toner/carrier ratio sensor according to the generated PWM signal in order to determine the toner/carrier ratio in the developing unit.
A method in a network node (110, 200), comprising: obtaining a first identifier associated with resuming an inactive connection between a wireless device (120, 210, 300) and a network (100, 220); sending a page to the wireless device, wherein the page comprises the first identifier and wherein paging information is segregated from a location within the network from which to obtain information associated with the connection; receiving a second identifier from the wireless device, wherein the second identifier is associated with the first identifier, wherein the second identifier is received in response to the page, wherein the second identifier is associated with a location indicator that indicates the location within the network from which to obtain information associated with the connection; determining the location indicator based on the second identifier; obtaining the information associated with the connection from the location indicated by the location indicator; and using the information associated with the connection to facilitate resuming the connection between the wireless device and the network. obtaining a first identifier associated with resuming an inactive connection between a wireless device (120, 210, 300) and a network (100, 220); sending a page to the wireless device, wherein the page comprises the first identifier and wherein paging information is segregated from a location within the network from which to obtain information associated with the connection; receiving a second identifier from the wireless device, wherein the second identifier is associated with the first identifier, wherein the second identifier is received in response to the page, wherein the second identifier is associated with a location indicator that indicates the location within the network from which to obtain information associated with the connection; determining the location indicator based on the second identifier; obtaining the information associated with the connection from the location indicated by the location indicator; and using the information associated with the connection to facilitate resuming the connection between the wireless device and the network.
A method comprising: under control of a smart utility meter (102A - 102N) of a network, the smart utility meter being configured with specific executable instructions, receiving an update package from a device of the network, the update package including a plurality of update items for updating different versions of an idle operating system of the smart utility meter; and updating the idle operating system of the smart utility meter by applying one or more update items of the plurality of update items to the idle operating system of the smart utility meter while maintaining operation of an active operating system of the smart utility meter, the one or more update items being applicable to updating a current version of the idle operating system; and while updating the idle operating system, collecting utility consumption data using the active operating system. under control of a smart utility meter (102A - 102N) of a network, the smart utility meter being configured with specific executable instructions, receiving an update package from a device of the network, the update package including a plurality of update items for updating different versions of an idle operating system of the smart utility meter; and updating the idle operating system of the smart utility meter by applying one or more update items of the plurality of update items to the idle operating system of the smart utility meter while maintaining operation of an active operating system of the smart utility meter, the one or more update items being applicable to updating a current version of the idle operating system; and while updating the idle operating system, collecting utility consumption data using the active operating system.
A method of controlling an image processing apparatus having a collected toner container in which residual toner is accumulated, the method comprising: obtaining a supplied toner amount indicating an amount of toner supplied to a developing unit of the image processing apparatus; obtaining a total number of printed sheets generated by the image processing apparatus; calculating an average number of printed sheets per image forming job; calculating an average printing ratio indicating an average of printing ratios of the printed sheets, based on the supplied toner amount, the total number of printed sheets, and the average number of printed sheets per image forming job; calculating a collected toner amount indicating an amount of toner accumulated in the collected toner container of the image processing apparatus based on the average number of printed sheets per image forming job and the average printing ratio; comparing the collected toner amount with a threshold value to generate a comparison result; and causing the image processing apparatus to stop forming of the toner image when the comparison result indicates that the collected toner amount exceeds the threshold value. obtaining a supplied toner amount indicating an amount of toner supplied to a developing unit of the image processing apparatus; obtaining a total number of printed sheets generated by the image processing apparatus; calculating an average number of printed sheets per image forming job; calculating an average printing ratio indicating an average of printing ratios of the printed sheets, based on the supplied toner amount, the total number of printed sheets, and the average number of printed sheets per image forming job; calculating a collected toner amount indicating an amount of toner accumulated in the collected toner container of the image processing apparatus based on the average number of printed sheets per image forming job and the average printing ratio; comparing the collected toner amount with a threshold value to generate a comparison result; and causing the image processing apparatus to stop forming of the toner image when the comparison result indicates that the collected toner amount exceeds the threshold value.