mhurhangee/patent-ind-claim-en huggingface dataset:
Serial connection for connecting a listener to at least two drivers through a single serial bus , wherein each driver is also connected to the listener through a common connection carrying an external trigger signal, characterized by the fact that each driver comprises: • a first receiver transmitter of the FIFO type, connected in between the output and a data transmitter connected to data generation means , the first receiver transmitter being configured as a transmitter, • an external trigger input connected to the common connection , to a timer and a data latch , • a high impedance output control connected to the output of the first receiver transmitter , configured to not allow data through unless a command is received from a toggle signal transmitter , • the timer connected between the toggle signal transmitter and the high impedance output control , configured to allow the command from the toggle signal transmitter to go through after lapsing of a predetermined duration starting as an external trigger event happens, the external trigger event being based on the external trigger signal, the predetermined duration being different for each driver. • the data latch connected between the data transmitter and the first receiver transmitter , configured to allow the data through upon detecting the external trigger event. • a first receiver transmitter of the FIFO type, connected in between the output and a data transmitter connected to data generation means , the first receiver transmitter being configured as a transmitter, • an external trigger input connected to the common connection , to a timer and a data latch , • a high impedance output control connected to the output of the first receiver transmitter , configured to not allow data through unless a command is received from a toggle signal transmitter , • the timer connected between the toggle signal transmitter and the high impedance output control , configured to allow the command from the toggle signal transmitter to go through after lapsing of a predetermined duration starting as an external trigger event happens, the external trigger event being based on the external trigger signal, the predetermined duration being different for each driver. • the data latch connected between the data transmitter and the first receiver transmitter , configured to allow the data through upon detecting the external trigger event.
A laminate structure comprising: a first layer and a second layer, wherein the first layer is adhered via an adhesive to the second layer; and a plurality of score lines formed in the second layer and defining plug areas and non-plug areas; wherein at least a portion of the first layer is configured to be peeled away from the second layer, defining a peel area, wherein the plug areas are configured to be separated and displaced from the second layer upon peeling away of the corresponding portion of the first layer to create openings in the second layer, wherein a peel interface line is formed between the first layer and the second layer and progressively moves as the first layer is peeled away from the second layer, wherein the plug areas are disposed in a staggered pattern and have a tapered shape comprising a narrow end and a wider end, and wherein the tapered plug areas are disposed such that as the location of the peel interface line moves from one side of the peel area to the other, the peel interface line first intersects the plug areas on their narrow end. a first layer and a second layer, wherein the first layer is adhered via an adhesive to the second layer; and a plurality of score lines formed in the second layer and defining plug areas and non-plug areas; wherein at least a portion of the first layer is configured to be peeled away from the second layer, defining a peel area, wherein the plug areas are configured to be separated and displaced from the second layer upon peeling away of the corresponding portion of the first layer to create openings in the second layer, wherein a peel interface line is formed between the first layer and the second layer and progressively moves as the first layer is peeled away from the second layer, wherein the plug areas are disposed in a staggered pattern and have a tapered shape comprising a narrow end and a wider end, and wherein the tapered plug areas are disposed such that as the location of the peel interface line moves from one side of the peel area to the other, the peel interface line first intersects the plug areas on their narrow end.
A method of producing a compound having a partial structure represented by following Formula by an insertion reaction of a compound represented by following Formula into a compound having a partial structure represented by following Formula in the presence of an ionic catalyst formed from an anion and a counter cation, wherein the anion is a monovalent anion containing at least one type of element selected from the group consisting of iodine, nitrogen and sulfur, and the counter cation is a cation containing at least any one type of element among nitrogen or phosphorus, or is an alkali metal ion or a proton, wherein, in the Formulas, * represents a bonding site and each of X 1 and R 1 to R 4 independently represents a hydrogen atom, a fluorine atom, a chlorine atom, or an organic group having a carbon number of 1 to 20 which may have a substituent, wherein at least one of R 1 to R 4 is a fluorine atom or a chlorine atom. the anion is a monovalent anion containing at least one type of element selected from the group consisting of iodine, nitrogen and sulfur, and the counter cation is a cation containing at least any one type of element among nitrogen or phosphorus, or is an alkali metal ion or a proton, wherein, in the Formulas, * represents a bonding site and each of X 1 and R 1 to R 4 independently represents a hydrogen atom, a fluorine atom, a chlorine atom, or an organic group having a carbon number of 1 to 20 which may have a substituent, wherein at least one of R 1 to R 4 is a fluorine atom or a chlorine atom.
A process for preparing 2,5-bis-hydroxymethylfuran (BHMF) from 5-hydroxymethylfurfural (HMF) comprising: reacting the 5-hydroxymethylfurfural (HMF) with hydrogen in a continuous flow reactor in the presence of an organic solvent and a heterogeneous reduction catalyst comprising at least one metal selected from the group consisting of Ni, Co, Cu, Ag, and Pt, or a combination thereof to form the 2,5-bis-hydroxymethylfuran (BHMF), wherein the process further comprises one or more of (i) and (ii): (i) forming the 2,5-bis-hydroxymethylfuran (BHMF) over an on-stream period of at least 150 hours; (ii) feeding the 5-hydroxymethylfurfural (HMF) to the continuous flow reactor for an on-stream period of at least 150 hours; and wherein the organic solvent is selected from the group consisting of alcohols, esters, ethers and mixtures thereof. reacting the 5-hydroxymethylfurfural (HMF) with hydrogen in a continuous flow reactor in the presence of an organic solvent and a heterogeneous reduction catalyst comprising at least one metal selected from the group consisting of Ni, Co, Cu, Ag, and Pt, or a combination thereof to form the 2,5-bis-hydroxymethylfuran (BHMF), wherein the process further comprises one or more of (i) and (ii): (i) forming the 2,5-bis-hydroxymethylfuran (BHMF) over an on-stream period of at least 150 hours; (ii) feeding the 5-hydroxymethylfurfural (HMF) to the continuous flow reactor for an on-stream period of at least 150 hours; and (i) forming the 2,5-bis-hydroxymethylfuran (BHMF) over an on-stream period of at least 150 hours; (ii) feeding the 5-hydroxymethylfurfural (HMF) to the continuous flow reactor for an on-stream period of at least 150 hours; and wherein the organic solvent is selected from the group consisting of alcohols, esters, ethers and mixtures thereof.
A part including a cut end-face of a surface treated steel sheet subjected to a cutting process and having excellent corrosion resistance at the cut end-face, characterized in that the shape of the cut end-face is such that a first shear droop appearing in a sheet-thickness direction has a length 0.10 times or more of a sheet thickness (T) of the surface treated steel sheet , and a second shear droop appearing in a planar direction has a length 0.45 times or more of the sheet thickness (T) of the surface treated steel sheet , and a surface of the cut end-face is coated and wrapped around with a plating metal layer , the plating metal layer being originally coated on a surface of the surface treated steel sheet .
A method for preparing nilotinib, comprising the following steps: performing an aminocarbonylation reaction on a compound A and 3-(4-methyl-1H-imidazole-1-yl)-5-(trifluoromethyl)aniline to obtain an amination product; and performing deprotection treatment of an R group on the amination product to obtain the nilotinib, wherein the compound A has a structure shown in formula I: in the formula I, the R group is benzyl, -COCF 3 , -CHO or -CO 2 R', wherein an R' group is C 1 ∼C 10 alkyl, C 1 ∼C 3 alkoxy ethyl or C 7 ∼C 19 aralkyl. performing an aminocarbonylation reaction on a compound A and 3-(4-methyl-1H-imidazole-1-yl)-5-(trifluoromethyl)aniline to obtain an amination product; and performing deprotection treatment of an R group on the amination product to obtain the nilotinib, wherein the compound A has a structure shown in formula I: in the formula I, the R group is benzyl, -COCF 3 , -CHO or -CO 2 R', wherein an R' group is C 1 ∼C 10 alkyl, C 1 ∼C 3 alkoxy ethyl or C 7 ∼C 19 aralkyl.
A touch screen system (TSS) comprising: a touch screen; capacitive grid (CG) associated with the touch screen and comprising a first capacitive sub-grid and a second capacitive sub-grid; a first microcontroller unit (MCU1) controlling the first capacitive sub-grid; a second microcontroller unit (MCU2) controlling the second capacitive sub-grid; wherein the capacitive grid is divided in the first capacitive sub-grid and the second capacitive sub-grid that have half of the resolution of the capacitive grid wherein the first microcontroller unit and the second microcontroller unit are configured to get respectively a first touch position and a second touch position after a touch input on the touch screen, wherein the first microcontroller unit and the second microcontroller unit are configured to test respectively a second channel associated with the second microcontroller unit and a first channel associated with the first microcontroller unit by sending a stimuli signal respectively to the first capacitive sub-grid and to the second capacitive sub-grid, wherein at least one of the first microcontroller unit and the second microcontroller unit are configured to determine a consolidated touch position by correlation of the first touch position and the second touch position. a touch screen; capacitive grid (CG) associated with the touch screen and comprising a first capacitive sub-grid and a second capacitive sub-grid; a first microcontroller unit (MCU1) controlling the first capacitive sub-grid; a second microcontroller unit (MCU2) controlling the second capacitive sub-grid; wherein the capacitive grid is divided in the first capacitive sub-grid and the second capacitive sub-grid that have half of the resolution of the capacitive grid wherein the first microcontroller unit and the second microcontroller unit are configured to get respectively a first touch position and a second touch position after a touch input on the touch screen, wherein the first microcontroller unit and the second microcontroller unit are configured to test respectively a second channel associated with the second microcontroller unit and a first channel associated with the first microcontroller unit by sending a stimuli signal respectively to the first capacitive sub-grid and to the second capacitive sub-grid, wherein at least one of the first microcontroller unit and the second microcontroller unit are configured to determine a consolidated touch position by correlation of the first touch position and the second touch position.
Method for supplying consumables to an automated analyzer comprising a housing, the method comprising the steps of: a) providing a mobile supply module comprising in a predefined geometrical arrangement at least one reagent container containing a reagent and at least one set of solid consumables , and further comprising a mount for reversibly docking the supply module to the analyzer, and a control unit comprising sensors for liquid level detection in said reagent container and for determining the presence or absence of specific solid consumables in the supply module , the supply module further comprising at least one waste container b) reversibly docking the supply module to the analyzer using said mount and a receiving interface comprised by the housing of the analyzer and establishing a fluidic connection between the supply module and the analyzer c) supplying from the supply module to the analyzer at least one reagent and at least one solid consumable , and collecting waste from the analyzer in at least one waste container of the supply module d) undocking the supply module from the analyzer and removing it therefrom, and detaching said fluidic connection between the supply module and the analyzer. a) providing a mobile supply module comprising in a predefined geometrical arrangement at least one reagent container containing a reagent and at least one set of solid consumables , and further comprising a mount for reversibly docking the supply module to the analyzer, and a control unit comprising sensors for liquid level detection in said reagent container and for determining the presence or absence of specific solid consumables in the supply module , the supply module further comprising at least one waste container b) reversibly docking the supply module to the analyzer using said mount and a receiving interface comprised by the housing of the analyzer and establishing a fluidic connection between the supply module and the analyzer c) supplying from the supply module to the analyzer at least one reagent and at least one solid consumable , and collecting waste from the analyzer in at least one waste container of the supply module d) undocking the supply module from the analyzer and removing it therefrom, and detaching said fluidic connection between the supply module and the analyzer.
A memory protection circuit comprising: a first ID storing register that stores therein an ID (Identification) of any of a plurality of virtual machines (VM1,..,VMn) managed by a hypervisor (HV1); an access determination circuit that permits the virtual machine having the ID stored in the first ID storing register to access a memory (M1) ; a second ID storing register that stores therein an ID of any of the virtual machines (VM1,..,VMn), and characterized by further comprising: an ID update control circuit that permits the virtual machine having the ID stored in the second ID storing register to rewrite the ID stored in the first ID storing register . a first ID storing register that stores therein an ID (Identification) of any of a plurality of virtual machines (VM1,..,VMn) managed by a hypervisor (HV1); an access determination circuit that permits the virtual machine having the ID stored in the first ID storing register to access a memory (M1) ; a second ID storing register that stores therein an ID of any of the virtual machines (VM1,..,VMn), and characterized by further comprising: an ID update control circuit that permits the virtual machine having the ID stored in the second ID storing register to rewrite the ID stored in the first ID storing register .
Method for ascertaining an acceleration of a target by means of radar waves, comprising the following steps: - transmitting ramped frequency-modulated radar transmission signals by means of at least one transmitting device and receiving at least one radar reception signal reflected from at least one target during a measurement interval (T meas ), - transferring the radar reception signal to an evaluation unit and converting the at least one received radar reception signal into digital measurement values, - carrying out a two-dimensional Fourier transformation from an absolute value spectrum of the digital measurement values, - detecting at least one target reflection of a target on the basis of peak values in an absolute value spectrum, - determining at least one distance (r) between a target and the transmitting device , at least one radial velocity v r and at least one transverse velocity (v q ) of a target relative to the transmitting device , - determining at least one angle (α, 15) of the at least one target relative to an orientation of the transmitting device , wherein on the basis of the determination of the distance (r, 14), the relative radial velocity (v r ) and the angle(α, 15), apart from the respective target reflection of a target for which the acceleration is intended to be estimated, all further target reflections and disturbances are suppressed and for said target reflection of a physical target , after carrying out an inverse Fourier transformation , radial accelerations (a r ) are approximately calculated from the transformed measurement values. - transmitting ramped frequency-modulated radar transmission signals by means of at least one transmitting device and receiving at least one radar reception signal reflected from at least one target during a measurement interval (T meas ), - transferring the radar reception signal to an evaluation unit and converting the at least one received radar reception signal into digital measurement values, - carrying out a two-dimensional Fourier transformation from an absolute value spectrum of the digital measurement values, - detecting at least one target reflection of a target on the basis of peak values in an absolute value spectrum, - determining at least one distance (r) between a target and the transmitting device , at least one radial velocity v r and at least one transverse velocity (v q ) of a target relative to the transmitting device , - determining at least one angle (α, 15) of the at least one target relative to an orientation of the transmitting device ,
Heat transfer pipe having a longitudinal pipe axis (A), a pipe wall , an outer pipe side and an inner pipe side , wherein - continually extending, axially parallel or helically circumferential ribs are formed from the pipe wall at the outer pipe side and/or inner pipe side , - continuously extending primary grooves are formed in each case between adjacent ribs , wherein the ribs are subdivided along the rib extent into periodically repeating rib portions which are separated into a large number of projections with a projection height (h), wherein the projections are formed by cutting the ribs at a cutting depth (t 1 , t 2 , t 3 ) transversely relative to the rib extent in order to form rib segments and by raising the rib segments with a main orientation along the rib extent between primary grooves , characterised in that the projections have alternately changing cutting depths (t 1 , t 2 , t 3 ) through a rib . - continually extending, axially parallel or helically circumferential ribs are formed from the pipe wall at the outer pipe side and/or inner pipe side , - continuously extending primary grooves are formed in each case between adjacent ribs ,
Storage container for a storage and dispensing station for small piece goods, comprising: a housing enclosing a receiving space for small piece goods, including a circular cylindrical section and a housing bottom surface having a dispensing opening , a separating device situated in the circular cylindrical section of the housing including a plurality of channels for receiving at least one small piece good and including a base area facing the housing bottom surface , the base area having dispensing openings of the channels , and a retaining means including a positioning means and a retaining section , the positioning means holding the retaining means over the dispensing opening , characterized in that the base area of the separating device has a plurality of depressions and/or elevations, at least in sections, to reduce a possible contact area between the base area and small piece good, the shape and size of which is selected in such a way that an electrostatic attraction between small piece goods and the base area is reduced. a housing enclosing a receiving space for small piece goods, including a circular cylindrical section and a housing bottom surface having a dispensing opening , a separating device situated in the circular cylindrical section of the housing including a plurality of channels for receiving at least one small piece good and including a base area facing the housing bottom surface , the base area having dispensing openings of the channels , and a retaining means including a positioning means and a retaining section , the positioning means holding the retaining means over the dispensing opening , characterized in that the base area of the separating device has a plurality of depressions and/or elevations, at least in sections, to reduce a possible contact area between the base area and small piece good, the shape and size of which is selected in such a way that an electrostatic attraction between small piece goods and the base area is reduced.
Optoelectronic device comprising a stack: of a first circuit comprising at least one inorganic light-emitting diode (LED) emitting through a first surface of the first circuit and comprising first and second electrodes ; and of a second circuit for controlling the light-emitting diode, positioned on a second surface of the first circuit opposite to the first surface, comprising first and second electrically-conductive pads , wherein an electrically-conductive layer comprising the stacking of a first electrically-conductive sub-layer of the first circuit and of a second electrically-conductive sub-layer of the second circuit , is located at the interface between the first and second circuits, the electrically-conductive layer being divided into first and second portions orthogonally to the stacking direction of the first and second circuits, the first electrode being electrically coupled to the first conductive pad via the first portion of the conductive layer and the second electrode being electrically coupled to the second conductive pad via the second portion of the conductive layer, the first and second conductive portions of the electrically-conductive layer being separated by an electrical insulation trench . of a first circuit comprising at least one inorganic light-emitting diode (LED) emitting through a first surface of the first circuit and comprising first and second electrodes ; and of a second circuit for controlling the light-emitting diode, positioned on a second surface of the first circuit opposite to the first surface, comprising first and second electrically-conductive pads , wherein an electrically-conductive layer comprising the stacking of a first electrically-conductive sub-layer of the first circuit and of a second electrically-conductive sub-layer of the second circuit , is located at the interface between the first and second circuits, the electrically-conductive layer being divided into first and second portions orthogonally to the stacking direction of the first and second circuits, the first electrode being electrically coupled to the first conductive pad via the first portion of the conductive layer and the second electrode being electrically coupled to the second conductive pad via the second portion of the conductive layer, the first and second conductive portions of the electrically-conductive layer being separated by an electrical insulation trench .