mhurhangee/patent-ind-claim-en huggingface dataset:
An image transfer product comprising a printing blanket or sleeve including a print surface layer , an elastomeric layer directly underlying said print surface layer , at least one fabric layer underlying said print surface layer , and a compressible layer underlying said print surface layer , wherein at least one of said layers includes at least one phase change material therein for regulating the temperature of said image transfer product, said at least one phase change material has a melting point of from 18° to 45°C, and wherein said phase change material is not present in the upper surface of said print surface layer .
A tag counting ending method for anti-collision in a radio frequency identification system, characterized in that the method comprises: Step 201: after the counting begins, a register of a reader-writer is set with an initial value for the register; Step 202: a reader-writer waits for response signals from a tag; Step 203: when no response signal from the tag, then determine the value of the register, if the value of the register is less than or equal to a pre-determined counting ending register threshold value, step 206 is to be executed; if the value of the register is greater than said pre-determined counting ending register threshold value, step 204 is to be executed and the counting process is to be continued; Step 206: the reader-writer transmits Finish commands and waits for response from the tag, when no response from the tag, the counting process is finished; when any response from the tag, then a next command is determined by the reader-writer and step 204 is to be executed; Step 204: a next command of the reader-writer is determined according to a response from the tag, when no collision and the response from the tag is successful, then the next command is a Success command and subtracting the value of the register by 1; when any collision or the response from the tag is failed, then the next command is a Fail command and adding the value of the register by 1; Step 205: transmitting the next command to the tag, then returning to step 202, and continuing the counting process. Step 201: after the counting begins, a register of a reader-writer is set with an initial value for the register; Step 202: a reader-writer waits for response signals from a tag; Step 203: when no response signal from the tag, then determine the value of the register, if the value of the register is less than or equal to a pre-determined counting ending register threshold value, step 206 is to be executed; if the value of the register is greater than said pre-determined counting ending register threshold value, step 204 is to be executed and the counting process is to be continued; Step 206: the reader-writer transmits Finish commands and waits for response from the tag, when no response from the tag, the counting process is finished; when any response from the tag, then a next command is determined by the reader-writer and step 204 is to be executed; Step 204: a next command of the reader-writer is determined according to a response from the tag, when no collision and the response from the tag is successful, then the next command is a Success command and subtracting the value of the register by 1; when any collision or the response from the tag is failed, then the next command is a Fail command and adding the value of the register by 1; Step 205: transmitting the next command to the tag, then returning to step 202, and continuing the counting process.
A negative high voltage level shifter for receiving an input and generating a first negative voltage applied to a split-gate flash memory cell, the negative high voltage level shifter comprising: a cascode circuit comprising a first PMOS transistor coupled in series to a second PMOS transistor and a first NMOS transistor coupled in series to a second NMOS transistor , the first NMOS transistor comprising a deep N-well, the second NMOS transistor comprising a deep N-well; a negative medium voltage level shifter circuit for generating a second negative voltage used to control the gate of the second PMOS transistor and the gate of the first NMOS transistor; wherein the first negative voltage_is generated as the output at the node between the first NMOS transistor and second PMOS transistor in response to the input having a low value. a cascode circuit comprising a first PMOS transistor coupled in series to a second PMOS transistor and a first NMOS transistor coupled in series to a second NMOS transistor , the first NMOS transistor comprising a deep N-well, the second NMOS transistor comprising a deep N-well; a negative medium voltage level shifter circuit for generating a second negative voltage used to control the gate of the second PMOS transistor and the gate of the first NMOS transistor; wherein the first negative voltage_is generated as the output at the node between the first NMOS transistor and second PMOS transistor in response to the input having a low value.
Drainage body unit having at least one drainage body element , at least one first shaft element and at least one second shaft element , wherein - a cleaning element is arranged in the first shaft element between a fluid inlet and a fluid outlet , - a throttle element is arranged in the second shaft element between a fluid inlet and a fluid outlet , and - the shaft elements are fluid-connected or fluid-connectable to one or more drainage body elements . - a cleaning element is arranged in the first shaft element between a fluid inlet and a fluid outlet , - a throttle element is arranged in the second shaft element between a fluid inlet and a fluid outlet , and - the shaft elements are fluid-connected or fluid-connectable to one or more drainage body elements .
An in vitro method for monitoring the onset of liver damage after chemotherapy of colorectal cancer, wherein the liver damage comprises congestive liver due to destruction of sinusoidal cells, and wherein said method comprises measuring or monitoring the ADAMTS 13 activity in a sample from a mammal.
Self-propelled and self-steering floor cleaning apparatus comprising a running gear for traveling on the floor surface , at least one cleaning device for cleaning the floor surface , a control device , and a sensor device , wherein the control device is formed and configured to locate and/or navigate the floor cleaning apparatus in an environment depending on at least one signal from the sensor device , wherein the sensor device comprises on a front side of the floor cleaning apparatus with respect to its forward direction a first distance measuring unit , which is configured as or comprises a stereo camera system , and a second distance measuring unit , which is configured as or comprises a scanning unit with structured light, wherein viewing areas of the first distance measuring unit and of the second distance measuring unit are directed in the forward direction of the floor cleaning apparatus and overlap, characterized in that the second distance measuring unit is arranged with respect to a height direction above the first distance measuring unit on the floor cleaning apparatus .
A method for monitoring a global failure in a virtual gateway cluster, comprising: setting , in response to receiving a network probe setting instruction, a network probe in a target monitoring scenario, the network probe comprising a sending end probe and a receiving end probe; collecting a response data packet sent by the sending end probe to the receiving end probe via target virtual gateways in a target virtual gateway cluster, the target virtual gateway cluster being determined based on the target monitoring scenario; and analyzing the response data packet based on a preset monitoring index, to determine whether a global failure occurs in the target virtual gateway cluster, the preset monitoring index including at least one of: a packet loss rate, a delay, a response time, or an interruption rate. setting , in response to receiving a network probe setting instruction, a network probe in a target monitoring scenario, the network probe comprising a sending end probe and a receiving end probe; collecting a response data packet sent by the sending end probe to the receiving end probe via target virtual gateways in a target virtual gateway cluster, the target virtual gateway cluster being determined based on the target monitoring scenario; and analyzing the response data packet based on a preset monitoring index, to determine whether a global failure occurs in the target virtual gateway cluster, the preset monitoring index including at least one of: a packet loss rate, a delay, a response time, or an interruption rate.
A process for steam cracking a hydrocarbon material in a steam cracking furnace including a tube comprising a convection section, a cross-over section downstream of the convection section, and a heated radiant section downstream of the cross-over section, comprising: feeding the hydrocarbon material and steam into the convection section to obtain a feed mixture, the hydrocarbon material comprising olefins at a total concentration of C0 mol% based on the total moles of the fluid species in the hydrocarbon material; heating the hydrocarbon material mixture in the convection section to obtain a first fluid stream at a temperature T1 at the end of the convection section; passing the first fluid stream through the cross-over section to obtain a second fluid stream at the end of the cross-over section at a temperature T2, the second fluid stream comprising olefins at a total concentration of C2 mol% based on the total moles of the fluid species therein; passing the second fluid stream through the radiant section to obtain a cracked fluid mixture at the end of the radiant section at a temperature T3, wherein: T3 is higher than T2 and T1; and T1 and T2 are selected such that significant cracking reaction occurs at least in a portion of the convection section and at least a portion of the cross-over section, and such that C2 - C0 ≥ 5. feeding the hydrocarbon material and steam into the convection section to obtain a feed mixture, the hydrocarbon material comprising olefins at a total concentration of C0 mol% based on the total moles of the fluid species in the hydrocarbon material; heating the hydrocarbon material mixture in the convection section to obtain a first fluid stream at a temperature T1 at the end of the convection section; passing the first fluid stream through the cross-over section to obtain a second fluid stream at the end of the cross-over section at a temperature T2, the second fluid stream comprising olefins at a total concentration of C2 mol% based on the total moles of the fluid species therein; passing the second fluid stream through the radiant section to obtain a cracked fluid mixture at the end of the radiant section at a temperature T3, wherein: T3 is higher than T2 and T1; and T1 and T2 are selected such that significant cracking reaction occurs at least in a portion of the convection section and at least a portion of the cross-over section, and such that C2 - C0 ≥ 5. T3 is higher than T2 and T1; and T1 and T2 are selected such that significant cracking reaction occurs at least in a portion of the convection section and at least a portion of the cross-over section, and such that C2 - C0 ≥ 5.
Supporting platform (1000; 2000) to support an apparatus to be transported by air and/or surface transporting means, said platform comprising: - a variable geometry frame (T) comprising a main body having a first and a second longitudinal element, a first and a second transverse element, said longitudinal elements being connected to said transverse elements to form a supporting base for the apparatus to be transported, said frame (T) further comprising a first and a second expanding portion of said main body , each expanding portion being slidably connected to said first and second transverse element, and being movable for approaching/spacing to/from said main body such as to cause said frame (T) to have a compact/extended configuration, depending on a distance of each of said expanding portions from said main body , wherein each expanding portion has a C-shaped conformation comprising a frame side member , substantially parallel to said longitudinal element , and two transverse arms in which each transverse arm is slidingly connected to a respective transverse element of said main body such as to allow a movement of said frame side member from a position closed to said longitudinal element , at a compact configuration of said frame (T), to a position spaced from said longitudinal element , at an extended configuration of said frame (T), characterised in that said platform (1000; 2000) comprising fastening means positioned at each of said expanding portions , said fastening means being configured to allow, in use, a fastening of said supporting platform (1000; 2000) to an air and/or surface transporting means equipped with a corresponding housing for said fastening means , in each compact and/or extended geometric configuration of said frame (T), wherein said fastening means comprises at least one stopping guide rotatably connected to each frame side member , configured to allow a fixing of said supporting platform (1000; 2000) on an air transporting vehicle. - a variable geometry frame (T) comprising a main body having a first and a second longitudinal element, a first and a second transverse element, said longitudinal elements being connected to said transverse elements to form a supporting base for the apparatus to be transported,
A device comprising: a tip that is sensitive to contact pressure; a sensor configured to detect the contact pressure; memory configured to store at least one pre-defined first threshold and a predefined second threshold on the contact pressure, wherein the first threshold defines tip state as one of a pen-up and a pen-down, wherein pressures below the first threshold defines pen-up and pressures above the first threshold define pen-down and the second threshold is below the first threshold; a circuit configured to: transmit in a hover transmission mode based on detecting pressures below the second threshold; switch to a writing transmission mode based on detecting a pressure at or above the second threshold, wherein the writing transmission mode frame rate is higher than a hover transmission mode frame rate; and terminate the writing transmission mode based on detecting the pen-up status for a first pre-defined period, and wherein the circuit is configured to switch to a synchronization transmission mode based on detecting the pen-up status for a second pre-defined period, the second pre-defined period being longer than the first predefined period, wherein the circuit is defined to transmit beacon signals at an accelerated rate during the synchronization transmission mode as compared to rate of transmitting beacon signals in the hover transmission mode. a tip that is sensitive to contact pressure; a sensor configured to detect the contact pressure; memory configured to store at least one pre-defined first threshold and a predefined second threshold on the contact pressure, wherein the first threshold defines tip state as one of a pen-up and a pen-down, wherein pressures below the first threshold defines pen-up and pressures above the first threshold define pen-down and the second threshold is below the first threshold; a circuit configured to: transmit in a hover transmission mode based on detecting pressures below the second threshold; switch to a writing transmission mode based on detecting a pressure at or above the second threshold, wherein the writing transmission mode frame rate is higher than a hover transmission mode frame rate; and terminate the writing transmission mode based on detecting the pen-up status for a first pre-defined period, transmit in a hover transmission mode based on detecting pressures below the second threshold; switch to a writing transmission mode based on detecting a pressure at or above the second threshold, wherein the writing transmission mode frame rate is higher than a hover transmission mode frame rate; and terminate the writing transmission mode based on detecting the pen-up status for a first pre-defined period, and wherein the circuit is configured to switch to a synchronization transmission mode based on detecting the pen-up status for a second pre-defined period, the second pre-defined period being longer than the first predefined period, wherein the circuit is defined to transmit beacon signals at an accelerated rate during the synchronization transmission mode as compared to rate of transmitting beacon signals in the hover transmission mode.
A compound selected from: 314 315 316 317 319 320 321 322 323 324 325 326 327 328 330 331 332 333 334 335 336 337 338 339 340 341 342 343 344 345 346 348 349 350 351 352 353 354 355 , and 356 , or a pharmaceutically acceptable salt, hydrate, solvate, polymorph, optical isomer, Z (zusammen) isomer, E (entegen) isomer, tautomer, or combination thereof.
Protection device for a fluid flow line , comprising: - a valve , intended to be movable in the flow line between an open position in which fluid is able to flow in the flow line and a closed position in which fluid is unable to flow in the flow line ; - a valve actuator , able to move the valve to the closed position when a pressure upstream of the valve exceeds a predermined threshold pressure; the valve actuator comprising: - a biasing member , able to maintain the valve in the open rest position; - an actuation mechanism , able to act against the biasing member to move the valve to the closed position, the actuation mechanism delimiting at least a fluid actuated surface able to receive fluid from the flow line ; characterized in that the valve actuator further comprises: - a fluid sampling passage intended to fluidly connect the flow line to the fluid actuated surface ; and - at least a rupture element preventing the passage of fluid from the flow line in the fluid sampling passage downstream of the rupture element when the pressure upstream of the rupture element is lower than the predetermined threshold pressure, the rupture element being able to break at the predetermined threshold pressure to let fluid from the flowline contact the fluid actuated surface . - a valve , intended to be movable in the flow line between an open position in which fluid is able to flow in the flow line and a closed position in which fluid is unable to flow in the flow line ; - a valve actuator , able to move the valve to the closed position when a pressure upstream of the valve exceeds a predermined threshold pressure; the valve actuator comprising: - a biasing member , able to maintain the valve in the open rest position; - an actuation mechanism , able to act against the biasing member to move the valve to the closed position, the actuation mechanism delimiting at least a fluid actuated surface able to receive fluid from the flow line ; characterized in that the valve actuator further comprises: - a fluid sampling passage intended to fluidly connect the flow line to the fluid actuated surface ; and - at least a rupture element preventing the passage of fluid from the flow line in the fluid sampling passage downstream of the rupture element when the pressure upstream of the rupture element is lower than the predetermined threshold pressure, the rupture element being able to break at the predetermined threshold pressure to let fluid from the flowline contact the fluid actuated surface .
An electroconductive member (10; 70) for electrophotography, comprising: an electroconductive support (22; 31; 72); and a surface layer (21; 30) on the electroconductive support (22; 31; 72), wherein the surface layer (21; 30) comprises a skeleton that is three-dimensionally continuous and pores communicating in a thickness direction, wherein a pore that communicates in a thickness direction refers to a pore extending from an opening of the surface of the surface layer to the surface of the electroconductive support, characterized in that any region measuring 150 μm per side of a surface of the surface layer (21; 30) is photographed and equally divided into 60 parts in a vertical direction and 60 parts in a horizontal direction to form 3,600 squares, a number of squares including through holes is 100 or less, wherein the through-hole refers to a pore through which the surface of the electroconductive support can be directly observed at a position facing the surface of the surface layer, the skeleton is non-electroconductive, and the skeleton is formed by a plurality of particles connected to each other through a neck , and an average value D1 of circle-equivalent diameters of the particles is 0.1 μm or more and 20 μm or less. an electroconductive support (22; 31; 72); and a surface layer (21; 30) on the electroconductive support (22; 31; 72), wherein the surface layer (21; 30) comprises a skeleton that is three-dimensionally continuous and pores communicating in a thickness direction, wherein a pore that communicates in a thickness direction refers to a pore extending from an opening of the surface of the surface layer to the surface of the electroconductive support, characterized in that any region measuring 150 μm per side of a surface of the surface layer (21; 30) is photographed and equally divided into 60 parts in a vertical direction and 60 parts in a horizontal direction to form 3,600 squares, a number of squares including through holes is 100 or less, wherein the through-hole refers to a pore through which the surface of the electroconductive support can be directly observed at a position facing the surface of the surface layer, the skeleton is non-electroconductive, and the skeleton is formed by a plurality of particles connected to each other through a neck , and an average value D1 of circle-equivalent diameters of the particles is 0.1 μm or more and 20 μm or less.
A discrimination calculation apparatus configured to discriminate an object in discrimination target image data , comprising: feature calculation means configured to sequentially perform a product-sum operation on features (403a-403c, 405a-405b, 407) of discrimination target image data , for determining an object , for respective hierarchical layers of a hierarchical neural network; the apparatus further comprises: discrimination calculation means configured to sequentially perform a linear discrimination calculation at a target layer on the discrimination target image data using a feature (403a-403c, 405a-405b, 407) of a target layer that has been processed through the product-sum operation (S602) by the feature calculation means , and a result of the linear discrimination calculation from the preceding layer of the target layer; holding means configured to hold (S603, S606) the result of the linear discrimination calculation from the preceding layer of the target layer and the feature (403a-403c, 405a-405b, 407) of the target layer that has been processed through the product-sum operation by the feature calculation means ; and control means configured to control the discrimination calculation means to perform (S605) the linear discrimination calculation. discrimination calculation means configured to sequentially perform a linear discrimination calculation at a target layer on the discrimination target image data using a feature (403a-403c, 405a-405b, 407) of a target layer that has been processed through the product-sum operation (S602) by the feature calculation means , and a result of the linear discrimination calculation from the preceding layer of the target layer; holding means configured to hold (S603, S606) the result of the linear discrimination calculation from the preceding layer of the target layer and the feature (403a-403c, 405a-405b, 407) of the target layer that has been processed through the product-sum operation by the feature calculation means ; and control means configured to control the discrimination calculation means to perform (S605) the linear discrimination calculation.