mhurhangee/patent-ind-claim-en huggingface dataset:
Running equation of time mechanism comprising a hand arrangement whose purpose is to indicate civil time by means of a civil hour hand and a civil minute hand , and a true minute hand , the running equation of time mechanism also including an equation of time cam having a profile which is determined by the difference, on every day of the year, between civil time, and true time, said equation of time cam being driven in rotation at the rate of one revolution per year by a timepiece movement, the position of the true minute hand being determined by the position of the equation of time cam , the running equation of time mechanism also including a differential gear device whose first input is formed by a cannon-pinion integral with a civil minute pipe on which is pressed said civil minute hand , and whose second input is formed by the equation of time cam , the differential gear device including a planetary reducer wheel set , via which the civil minute pipe drives a civil hour pipe on which is pressed the civil hour hand , characterized in that it includes a planetary multiplier wheel set via which the civil hour pipe drives a true minute pipe on which is pressed the true minute hand , the planetary reducer wheel set and the planetary multiplier wheel set rotating on themselves describing a circular trajectory centred on the civil minute pipe .
A system for performing a merging maneuver of an automated vehicle (EGO), with the automated vehicle (EGO) merging from a current lane (CL) into an adjacent lane (AL), with the merging maneuver requiring at least one other road user (RU1) on the adjacent lane (AL) to yield to the automated vehicle (EGO), said system configured to: • detect the at least one other road user (RU1) on the adjacent lane (AL); • evaluate at least two guidance actions for the automated vehicle (EGO); • select one guidance action of the evaluated guidance actions considering the evaluation; • guide (g1) the automated vehicle (EGO) in such a way that the at least one other road user (RU1) understands that the automated vehicle (EGO) intends to merge in front of the at least one other road user (RU1) by performing the selected guidance action ; • determine if the at least one other road user (RU1) yields to the automated vehicle (EGO); and • guide (g2) the automated vehicle (EGO) to merge in front of the at least one other road user (RU1), if it is determined that the at least one other road user (RU1) yields to the automated vehicle (EGO). • detect the at least one other road user (RU1) on the adjacent lane (AL); • evaluate at least two guidance actions for the automated vehicle (EGO); • select one guidance action of the evaluated guidance actions considering the evaluation; • guide (g1) the automated vehicle (EGO) in such a way that the at least one other road user (RU1) understands that the automated vehicle (EGO) intends to merge in front of the at least one other road user (RU1) by performing the selected guidance action ; • determine if the at least one other road user (RU1) yields to the automated vehicle (EGO); and • guide (g2) the automated vehicle (EGO) to merge in front of the at least one other road user (RU1), if it is determined that the at least one other road user (RU1) yields to the automated vehicle (EGO).
Multi-clamping and measuring and/or presetting station for tools , which is configured for an automated, preferably fully automated, mounting of tools into tool holders and/or demounting of tools from tool holders and for an adjustment, in particular at least a length adjustment, and/or measuring of the tools in the tool holders , with at least two, in particular fully automated, tool clamping-in units , with at least one, in particular optical, measuring and/or presetting apparatus for tools and with at least one handling robot , which is at least configured to move tools and tool holders between the tool clamping-in units and the measuring and/or presetting apparatus , characterised in that the at least two, in particular fully automated, tool clamping-in units are embodied as different tool clamping-in units , which are at least configured for an automated, preferably fully automated, mounting of tools in respectively different tool holders with respectively different clamping methods, and/or for an automated, preferably fully automated, demounting of tools from respectively different tool holders with respectively different clamping methods. with at least two, in particular fully automated, tool clamping-in units , with at least one, in particular optical, measuring and/or presetting apparatus for tools and with at least one handling robot , which is at least configured to move tools and tool holders between the tool clamping-in units and the measuring and/or presetting apparatus , characterised in that the at least two, in particular fully automated, tool clamping-in units are embodied as different tool clamping-in units , which are at least configured for an automated, preferably fully automated, mounting of tools in respectively different tool holders with respectively different clamping methods, and/or for an automated, preferably fully automated, demounting of tools from respectively different tool holders with respectively different clamping methods.
A thermal history change type indicator, comprising: a thermally meltable material layer containing a thermally meltable material; a permeation layer , to one side of which color is applied, wherein the permeation layer becomes transparent or translucent when the thermally meltable material melts and permeates the permeation layer; a thermally meltable material permeation-inhibiting layer for preventing the permeation of the thermally meltable material into the permeation layer through the inhibition layer, wherein the thermally meltable material permeation-inhibiting layer is arranged between the thermally meltable material layer and the permeation layer such that when the thermally meltable material melts, it permeates the permeation layer from its end face; and a protective layer , wherein the thermally meltable material layer, the permeation layer, and the thermally meltable material permeation-inhibiting layer are layered, and the permeation layer side of the layered product is covered with the protective layer. a thermally meltable material layer containing a thermally meltable material; a permeation layer , to one side of which color is applied, wherein the permeation layer becomes transparent or translucent when the thermally meltable material melts and permeates the permeation layer; a thermally meltable material permeation-inhibiting layer for preventing the permeation of the thermally meltable material into the permeation layer through the inhibition layer, wherein the thermally meltable material permeation-inhibiting layer is arranged between the thermally meltable material layer and the permeation layer such that when the thermally meltable material melts, it permeates the permeation layer from its end face; and a protective layer , wherein the thermally meltable material layer, the permeation layer, and the thermally meltable material permeation-inhibiting layer are layered, and the permeation layer side of the layered product is covered with the protective layer.
A coupling device for a work vehicle comprising an automatic driving control unit with a work device , the coupling device comprising a first connector (8a1) having a first connecting position (P11) rotatably supported by a first vertical shaft of the work vehicle ; a second connector (8a2) having a second connecting position (P12) rotatably supported by a second vertical shaft of the work device ; an actuator configured to change at least one of the first and second connecting positions (P1 1, P12); and a control device configured to : estimate, with a position estimation model, a positional relationship between a preset travel line (L1) of the work vehicle and at least one of the first and second connecting positions (P11, P12), and during an automatic drive control of the work vehicle, control the actuator independently of the automatic driving control unit , to change at least one of the first and second connecting positions (P11, P12) based on the positional relationship. a first connector (8a1) having a first connecting position (P11) rotatably supported by a first vertical shaft of the work vehicle ; a second connector (8a2) having a second connecting position (P12) rotatably supported by a second vertical shaft of the work device ; an actuator configured to change at least one of the first and second connecting positions (P1 1, P12); and a control device configured to : estimate, with a position estimation model, a positional relationship between a preset travel line (L1) of the work vehicle and at least one of the first and second connecting positions (P11, P12), and during an automatic drive control of the work vehicle, control the actuator independently of the automatic driving control unit , to change at least one of the first and second connecting positions (P11, P12) based on the positional relationship. estimate, with a position estimation model, a positional relationship between a preset travel line (L1) of the work vehicle and at least one of the first and second connecting positions (P11, P12), and during an automatic drive control of the work vehicle, control the actuator independently of the automatic driving control unit , to change at least one of the first and second connecting positions (P11, P12) based on the positional relationship.
Shaft grounding ring for discharging induced voltages respectivly electric charges from a first rotating machine element , preferably a shaft, into a second stationary machine element , having an annular housing consisting of electrically conducting material, which is connected to one of the other two machine elements in an electrically conducting manner and is electrically conductively connected to at least one annular discharge body , which at least partially consists of an electrically conducting material and is electrically conductively connected to the other of the two machine elements , characterized in that the discharge body has an annular section , from which elastically deformable, flap-shaped sections project, which have different lengths in the radial direction and form different raceways on the respective machine element in the installation position.
"In vitro" process for preparing a micro hair follicle, comprising at least one step of culturing the matrix cells derived from the hair bulb in the presence of an effective amount of a ROCK inhibitor for a period of time sufficient to allow differentiation of said cells into keratinocytes positive for the K85 K35 markers.
A driving device, driven by a power assembly, the driving device comprising a first driving assembly and a first motion conversion assembly, wherein the first driving assembly comprises a first effective stroke structure and a first idle stroke structure, the driving device has a first state and a second state, in the first state, the power assembly is engaged with the first effective stroke structure, and the first effective stroke structure drives the first motion conversion assembly; and in the second state, the power assembly is coupled with the first idle stroke structure, and the first motion conversion assembly is disengaged from a driving of the power assembly, characterized in that : the first driving assembly comprises a first driving member and a rotating member , the first effective stroke structure and the first idle stroke structure are both disposed on the rotating member , and in the first state, the first driving member and the rotating member are both engaged with the power assembly; and in the second state, only the first driving member in the first driving member and the rotating member is engaged with the power assembly; wherein the first effective stroke structure is a toothed portion , the first idle stroke structure is a non-toothed portion , and the toothed portion and the non-toothed portion are disposed adjacently; and the first driving member is a first driving gear ; wherein the power assembly comprises a motor and a front driving gear driven by the motor, and in the first state, the front driving gear is meshed with the toothed portion and the first driving gear simultaneously; and in the second state, the front driving gear is coupled with the non-toothed portion , and is meshed with the first driving gear . the first driving assembly comprises a first driving member and a rotating member , the first effective stroke structure and the first idle stroke structure are both disposed on the rotating member , and in the first state, the first driving member and the rotating member are both engaged with the power assembly; and in the second state, only the first driving member in the first driving member and the rotating member is engaged with the power assembly; wherein the first effective stroke structure is a toothed portion , the first idle stroke structure is a non-toothed portion , and the toothed portion and the non-toothed portion are disposed adjacently; and the first driving member is a first driving gear ; wherein the power assembly comprises a motor and a front driving gear driven by the motor, and in the first state, the front driving gear is meshed with the toothed portion and the first driving gear simultaneously; and in the second state, the front driving gear is coupled with the non-toothed portion , and is meshed with the first driving gear .
A transceiver for sending and receiving data from a controller area network (CAN) bus, the transceiver includes a microcontroller port , a transmitter , a receiver , and a glitch detector , wherein the glitch detector includes a RXD timing recovery module , wherein the RXD timing recovery module is configured to monitor a RXD line coupled between the receiver and the microcontroller port, wherein the glitch detector is configured to determine bit timings from a data frame received by the receiver, wherein the glitch detector includes a violation detector , wherein the violation detector is configured to detect attempts to introduce a signal glitch in a predetermined portion of the data frame, wherein the detection of the signal glitch includes monitoring a change in the signal amplitude beyond a predetermined threshold during the predetermined portion, and wherein upon detection of the signal glitch, the glitch detector is configured to invalidate the data frame on a transmission line coupled between the microcontroller port and the transmitter and/or to disable the transmitter for a predetermined period. wherein the glitch detector includes a RXD timing recovery module , wherein the RXD timing recovery module is configured to monitor a RXD line coupled between the receiver and the microcontroller port, wherein the glitch detector is configured to determine bit timings from a data frame received by the receiver, wherein the glitch detector includes a violation detector , wherein the violation detector is configured to detect attempts to introduce a signal glitch in a predetermined portion of the data frame, wherein the detection of the signal glitch includes monitoring a change in the signal amplitude beyond a predetermined threshold during the predetermined portion, and wherein upon detection of the signal glitch, the glitch detector is configured to invalidate the data frame on a transmission line coupled between the microcontroller port and the transmitter and/or to disable the transmitter for a predetermined period.
A system comprising: global memory circuitry configured to store input tensors and output tensors; row data paths , each row data path connected to an output port of the global memory circuitry ; column data paths , each column data path connected to an input port of the global memory circuitry ; processing elements arranged in rows and columns along the row data paths and column data paths , respectively, the processing elements including: local memory circuitry configured to store multiple masks; processing circuitry configured to: receive portions of the input tensors from one of the row data paths ; receive masks from the local memory circuitry ; perform multiple tensor operations on a same received portion of the input tensors by applying a different retrieved mask for each tensor operation; and generate, using results of the multiple tensor operations, an output for a corresponding column data path . global memory circuitry configured to store input tensors and output tensors; row data paths , each row data path connected to an output port of the global memory circuitry ; column data paths , each column data path connected to an input port of the global memory circuitry ; processing elements arranged in rows and columns along the row data paths and column data paths , respectively, the processing elements including: local memory circuitry configured to store multiple masks; processing circuitry configured to: receive portions of the input tensors from one of the row data paths ; receive masks from the local memory circuitry ; perform multiple tensor operations on a same received portion of the input tensors by applying a different retrieved mask for each tensor operation; and generate, using results of the multiple tensor operations, an output for a corresponding column data path . local memory circuitry configured to store multiple masks; processing circuitry configured to: receive portions of the input tensors from one of the row data paths ; receive masks from the local memory circuitry ; perform multiple tensor operations on a same received portion of the input tensors by applying a different retrieved mask for each tensor operation; and generate, using results of the multiple tensor operations, an output for a corresponding column data path . receive portions of the input tensors from one of the row data paths ; receive masks from the local memory circuitry ; perform multiple tensor operations on a same received portion of the input tensors by applying a different retrieved mask for each tensor operation; and generate, using results of the multiple tensor operations, an output for a corresponding column data path .
An apparatus to facilitate memory tiling comprising: a memory ; one or more processors including one or more execution units, EUs (2108A, 2108B, 2108C, 2108D, through 2108N-1 and 2108N) characterized in that the one or more processors are configured to execute a plurality of thread groups via access to the memory, each thread group of the plurality of thread groups including a plurality of processing threads; and wherein the one or more processors are configured to detect access patterns and data layout properties for each thread group, generate a tiling pattern for each thread group based at least in part on the detected access patterns and data layout properties for the thread group, and apply the generated tiling pattern for each thread group to memory addresses for data stored in the memory. a memory ; one or more processors including one or more execution units, EUs (2108A, 2108B, 2108C, 2108D, through 2108N-1 and 2108N) characterized in that the one or more processors are configured to execute a plurality of thread groups via access to the memory, each thread group of the plurality of thread groups including a plurality of processing threads; and wherein the one or more processors are configured to detect access patterns and data layout properties for each thread group, generate a tiling pattern for each thread group based at least in part on the detected access patterns and data layout properties for the thread group, and apply the generated tiling pattern for each thread group to memory addresses for data stored in the memory.
Method for pre-treating biomasses provided in bales, comprising a step of shredding said biomasses, wherein said method comprises, upstream of said step of shredding said biomasses, a step of removing foreign bodies for removing foreign bodies contained in said biomasses, wherein it further comprises, upstream of said step of removing foreign bodies , a step of disintegrating said bales and wherein it further comprises, downstream of said shredding step , a step of soaking said biomasses by immersing said biomasses in water, wherein said soaking step comprises a sub-step of removing fine foreign bodies and dusts.
A method of packing a first column with a slurry of a chromatographic medium to obtain a desired bed height of packed medium in the column, comprising the steps of: determining the concentration of a chromatographic medium in a liquid slurry using a second column , comprising the steps of: providing the second column having a top end and a bottom end and adapted to retain a chromatographic medium therein, introducing a defined volume of the slurry into the second column , providing a liquid flow through the second column from the top end to the bottom end of the column to settle the chromatographic medium in the second column, measuring the bed height of the consolidated chromatographic medium or a value related thereto, and determining from the measured bed height the concentration of the chromatographic medium in the slurry, determining from the determined slurry concentration the amount of slurry to be introduced into the first column to obtain the desired bed height therein, and filling the first column with the determined slurry amount. determining the concentration of a chromatographic medium in a liquid slurry using a second column , comprising the steps of: providing the second column having a top end and a bottom end and adapted to retain a chromatographic medium therein, introducing a defined volume of the slurry into the second column , providing a liquid flow through the second column from the top end to the bottom end of the column to settle the chromatographic medium in the second column, measuring the bed height of the consolidated chromatographic medium or a value related thereto, and determining from the measured bed height the concentration of the chromatographic medium in the slurry, providing the second column having a top end and a bottom end and adapted to retain a chromatographic medium therein, introducing a defined volume of the slurry into the second column , providing a liquid flow through the second column from the top end to the bottom end of the column to settle the chromatographic medium in the second column, measuring the bed height of the consolidated chromatographic medium or a value related thereto, and determining from the measured bed height the concentration of the chromatographic medium in the slurry, determining from the determined slurry concentration the amount of slurry to be introduced into the first column to obtain the desired bed height therein, and filling the first column with the determined slurry amount.
A compound of formula I wherein R is -P(O)(OH) 2 or -P(O)(OR 1 )(OR 2 ); R 1 is H or -C 1-26 alkyl; and R 2 is -C 1-26 alkyl; or a pharmaceutically acceptable salt thereof. -P(O)(OH) 2 or -P(O)(OR 1 )(OR 2 ); R 1 is H or -C 1-26 alkyl; and R 2 is -C 1-26 alkyl; or a pharmaceutically acceptable salt thereof.