mhurhangee/patent-ind-claim-en huggingface dataset:
A tape comprising: a tape backing; an adhesive disposed on at least a portion of a first surface of the tape backing; and a release coating disposed on at least a portion of a second surface the tape backing; wherein the tape backing comprises a microporous film having an opaque, microporous region and at least one see-through region of lower porosity within the opaque, microporous region, wherein the microporous film comprises a semi-crystalline polyolefin and a beta-nucleating agent, or wherein the microporous film comprises a crystallizable polymer and a diluent or a particulate cavitating agent. a tape backing; an adhesive disposed on at least a portion of a first surface of the tape backing; and a release coating disposed on at least a portion of a second surface the tape backing; wherein the tape backing comprises a microporous film having an opaque, microporous region and at least one see-through region of lower porosity within the opaque, microporous region, wherein the microporous film comprises a semi-crystalline polyolefin and a beta-nucleating agent, or wherein the microporous film comprises a crystallizable polymer and a diluent or a particulate cavitating agent.
A method for treatment trajectory guidance in a patient's brain, comprising: obtaining a three-dimensional brain model that includes a model of an anatomy, the model of the anatomy including a plurality of feature points ; modifying , by use of a computing device in communication with an magnetic resonance imaging (MRI) device , the 3D brain model based on magnetic resonance (MR) data of the patient's brain from the MRI device to obtain a plurality of modified feature points on a modified model of the patient's anatomy in the patient's brain; displaying , on a display in communication with the computing device , a first planned trajectory for treating the patient's anatomy based on the plurality of modified feature points ; displaying , on the display , a first estimated treatment result for the first planned trajectory ; in response to a first user input, displaying on the display a second planned trajectory different from the first planned trajectory ; and displaying on the display a second estimated treatment result for the second planned trajectory . obtaining a three-dimensional brain model that includes a model of an anatomy, the model of the anatomy including a plurality of feature points ; modifying , by use of a computing device in communication with an magnetic resonance imaging (MRI) device , the 3D brain model based on magnetic resonance (MR) data of the patient's brain from the MRI device to obtain a plurality of modified feature points on a modified model of the patient's anatomy in the patient's brain; displaying , on a display in communication with the computing device , a first planned trajectory for treating the patient's anatomy based on the plurality of modified feature points ; displaying , on the display , a first estimated treatment result for the first planned trajectory ; in response to a first user input, displaying on the display a second planned trajectory different from the first planned trajectory ; and displaying on the display a second estimated treatment result for the second planned trajectory .
Lock logic arrangement for a motor vehicle lock arrangement , wherein the motor vehicle lock arrangement has a detent mechanism in addition to the lock logic arrangement , wherein, in the mounted state, the motor vehicle lock arrangement is mechanically coupled to an outside door handle and optionally to an inside door handle , wherein the lock logic arrangement has a lock mechanism and an actuator , wherein the lock mechanism can be brought into different lock states by means of the actuator , wherein, in the mounted state, the detent mechanism can be opened, depending on the mechanical lock states, by a mechanical manual actuation of the outside door handle and optionally of the inside door handle , wherein the lock mechanism has a push-push mechanism which has an input element , which is adjustable by means of the actuator and is adjustable in a push movement and an opposed charging movement , and an adjustable switching element , which can be brought into at least two switching positions by switching movements , wherein, over the course of a push movement , the switching element , in a switching movement out of a switching position, takes up a new switching position, and wherein, over the course of a charging movement , the switching element maintains its switching position, characterized in that the push-push mechanism has a latching spring arrangement which secures the switching element in the switching positions in each case in a latching manner and which, over the course of a push movement of the input element , is tensioned and engaged and which, over the course of a charging movement of the input element , is tensioned, but not engaged.
Axial fan , comprising: - a fan hub rotatable about a center axis , which comprises a bottom wall and an annular side wall , - a plurality of fan blades projecting from the annular side wall of the fan hub , - wherein the fan hub comprises a plurality of outlet openings for the discharge of gaseous, liquid and/or solid accumulations from the interior of the fan hub to the outside of the fan hub , - wherein the plurality of outlet openings are provided on the annular circumferential side wall of the fan hub , - wherein elevations are provided next to the outlet openings , which elevations project from the annularly encircling side wall , and the elevations rise towards the outlet openings , characterized in that the elevations each comprise a slope which increases towards the respective outlet opening . - a fan hub rotatable about a center axis , which comprises a bottom wall and an annular side wall , - a plurality of fan blades projecting from the annular side wall of the fan hub , - wherein the fan hub comprises a plurality of outlet openings for the discharge of gaseous, liquid and/or solid accumulations from the interior of the fan hub to the outside of the fan hub , - wherein the plurality of outlet openings are provided on the annular circumferential side wall of the fan hub , - wherein elevations are provided next to the outlet openings , which elevations project from the annularly encircling side wall , and the elevations rise towards the outlet openings , characterized in that the elevations each comprise a slope which increases towards the respective outlet opening .
A SiC semiconductor device manufacturing method comprising: a step (A) of etching a surface of a SiC substrate with H 2 gas at a temperature of 1200°C or more; a step (B) of forming a SiO 2 film on the SiC substrate under a condition where the SiC substrate is not oxidized; and a step (C) of thermally treating the SiC substrate formed with the SiO 2 film in N 2 gas atmosphere at a temperature of 1350°C or more. a step (A) of etching a surface of a SiC substrate with H 2 gas at a temperature of 1200°C or more; a step (B) of forming a SiO 2 film on the SiC substrate under a condition where the SiC substrate is not oxidized; and a step (C) of thermally treating the SiC substrate formed with the SiO 2 film in N 2 gas atmosphere at a temperature of 1350°C or more.
A hydraulic control apparatus of a working machine having a hydraulic circuit, the circuit comprising: a hydraulic pump ; a hydraulic actuator driven by the hydraulic pump as a driving source; a control valve for controlling supply and discharge of oil with respect to the hydraulic actuator ; a relief valve for setting a maximum pressure of the hydraulic circuit; and control means for controlling a pump flow rate of the hydraulic pump , wherein the control means is adapted to, (i) with respect to controlling the pump flow rate of the hydraulic pump , select one control from a pressure feedback control for controlling the pump flow rate based on a set pressure as a cutoff pressure and a pump pressure, and, an ordinary control in which the pump flow rate is commanded based on operation information, the selected control having a minimum flow rate command value among different flow rate command values (Q1, Q2, Q3) determined by the pressure feedback control and the ordinary control as a small flow rate command value, characterized in that the control means is further adapted to (ii) when the pressure feedback control is selected, perform a flow rate increasing control for increasing the flow rate command value after a passage of time. a hydraulic pump ; a hydraulic actuator driven by the hydraulic pump as a driving source; a control valve for controlling supply and discharge of oil with respect to the hydraulic actuator ; a relief valve for setting a maximum pressure of the hydraulic circuit; and control means for controlling a pump flow rate of the hydraulic pump , wherein the control means is adapted to, (i) with respect to controlling the pump flow rate of the hydraulic pump , select one control from a pressure feedback control for controlling the pump flow rate based on a set pressure as a cutoff pressure and a pump pressure, and, an ordinary control in which the pump flow rate is commanded based on operation information, the selected control having a minimum flow rate command value among different flow rate command values (Q1, Q2, Q3) determined by the pressure feedback control and the ordinary control as a small flow rate command value, characterized in that the control means is further adapted to (ii) when the pressure feedback control is selected, perform a flow rate increasing control for increasing the flow rate command value after a passage of time. (i) with respect to controlling the pump flow rate of the hydraulic pump , select one control from a pressure feedback control for controlling the pump flow rate based on a set pressure as a cutoff pressure and a pump pressure, and, an ordinary control in which the pump flow rate is commanded based on operation information, the selected control having a minimum flow rate command value among different flow rate command values (Q1, Q2, Q3) determined by the pressure feedback control and the ordinary control as a small flow rate command value, characterized in that the control means is further adapted to (ii) when the pressure feedback control is selected, perform a flow rate increasing control for increasing the flow rate command value after a passage of time.
A zwitterionic-bias material for use in blood cell selection, being a copolymer formed by positively charged structural units and negatively charged structural units, wherein the positively charged structural units comprises at least one positively charged moiety, the negatively charged structural unit comprises at least one negatively charged moiety, and a distance between the positively charged moiety and the negatively charged moiety is a length of 1-5 carbon-carbon bonds, and the positively charged structural units and negatively charged structural units are randomly arranged to have zwitterionic-bias, wherein the zwitterionic-bias is determined by XPS in the dry state from the spectral area ratio of the atomic percentage based on the N 1s of quaternary amine groups (N + ) (TMA) and the S 2p of sulfonated groups (SO 3 - ) (SA) at the binding energy of approximately 399 and 168 eV, respectively, and wherein the zwitterionic-bias material has a positive zwitterionic-bias within a range of 15%∼65% that has activation effect to platelets, or a negative zwitterionic-bias within a range of 50%∼80% that has no activation effect to platelets.
Data network embedded in a vehicle, said network comprising a first (ECU1) and at least one second device (ECU2, ECU3, ECU4) connected by at least one interface or data link of the network, said devices (ECU1, ECU2, ECU3, ECU4) being capable of transmitting a plurality of data streams (F1, ..., F10), characterized in that : - The first equipment (ECU1) is configured to determine a criticality level based on network supervision data and transmit said criticality level to the second equipment (ECU2, ECU3, ECU4), The second equipment (ECU2, ECU3, ECU4) comprising a plurality - of interfaces and being configured to, in response to receiving said criticality level, load a predefined flow configuration table, associated with said criticality level, said table indicating which data flows are transmitted by said second equipment (ECU2, ECU3, ECU4). and , for a given criticality level, which flow is transmitted by which interface. - The first equipment (ECU1) is configured to determine a criticality level based on network supervision data and transmit said criticality level to the second equipment (ECU2, ECU3, ECU4), The second equipment (ECU2, ECU3, ECU4) comprising a plurality - of interfaces and being configured to, in response to receiving said criticality level, load a predefined flow configuration table, associated with said criticality level, said table indicating which data flows are transmitted by said second equipment (ECU2, ECU3, ECU4). and
An operating method for a portable electronic device, wherein the portable electronic device comprises a body and edge sensors disposed adjacent to edges of the portable electronic device on a first side (S3) and a second side (S4) of the body, the first side being opposite to the second side, wherein the operating method comprises: a squeezing event being generated according to a squeeze action sensed by the edge sensors, and in response to determining that a plugging-in event or a plugging-out event of a peripheral device is detected by the portable electronic device, ignoring the squeezing event; wherein the squeezing event is ignored in response to determining that the squeeze action sensed by the edge sensors and one of the plugging-in event and the plugging-out event occur during a first time period, and characterized in that the squeezing event is ignored in response to determining that the squeeze action begins within a second time period after the plugging-in event or the plugging-out event occurs. a squeezing event being generated according to a squeeze action sensed by the edge sensors, and in response to determining that a plugging-in event or a plugging-out event of a peripheral device is detected by the portable electronic device, ignoring the squeezing event; wherein the squeezing event is ignored in response to determining that the squeeze action sensed by the edge sensors and one of the plugging-in event and the plugging-out event occur during a first time period, and characterized in that the squeezing event is ignored in response to determining that the squeeze action begins within a second time period after the plugging-in event or the plugging-out event occurs.
A cell or tissue embedding device having an aqueous gel serving as an immunoisolation layer, the aqueous gel containing, as components thereof, a denatured polyvinyl alcohol resin having an activated carbonyl group (A) and a crosslinking agent (B).
A washing machine comprising: a tub ; a drum rotatably disposed inside the tub ; a discharge member provided in the tub to discharge air in the drum to the outside of the tub ; and a cap coupled to the discharge member to prevent water in the drum from being discharged to the outside of the tub through the discharge member , characterized in that the discharge member comprises an outer rib , a middle rib and an inner rib protruding upward from a bottom of the discharge member , the outer rib forming an outer appearance of the discharge member , the inner rib disposed inside the outer rib and forming a discharge hole communicating with the drum , and the middle rib disposed between the outer rib and the inner rib , the cap comprises an outer wall forming an outer appearance of the cap and an inner wall disposed inside the outer wall , and wherein the ribs in the discharge member and the walls in the cap are alternately arranged so to form a flow path (A). a tub ; a drum rotatably disposed inside the tub ; a discharge member provided in the tub to discharge air in the drum to the outside of the tub ; and a cap coupled to the discharge member to prevent water in the drum from being discharged to the outside of the tub through the discharge member , the discharge member comprises an outer rib , a middle rib and an inner rib protruding upward from a bottom of the discharge member , the outer rib forming an outer appearance of the discharge member , the inner rib disposed inside the outer rib and forming a discharge hole communicating with the drum , and the middle rib disposed between the outer rib and the inner rib , the cap comprises an outer wall forming an outer appearance of the cap and an inner wall disposed inside the outer wall , and wherein the ribs in the discharge member and the walls in the cap are alternately arranged so to form a flow path (A).
A method of controlling a load of a refrigerant recovery unit comprising the steps of: receiving refrigerant from a refrigerant system through one or more service hoses that provide fluid communication from the refrigerant system to the refrigerant recovery unit ; drawing sufficient current to energize a compressor's motor with a start relay function; monitoring, with a controller , a current drawn by the compressor's motor during the start relay function; with the start relay of the motor simultaneously activating, with the controller , a solenoid valve to open a compressor bypass loop line during the start relay function when the monitored current drawn by the compressor's motor is above a predetermined threshold; continue monitoring, with the controller , the current drawn by the compressor's motor after opening the compressor bypass loop line to determine if the current drawn by the compressor's motor is above or below the predetermined threshold; and shutting off, with the controller , the compressor's motor when the current drawn by the compressor's motor remains above a predetermined threshold. receiving refrigerant from a refrigerant system through one or more service hoses that provide fluid communication from the refrigerant system to the refrigerant recovery unit ; drawing sufficient current to energize a compressor's motor with a start relay function; monitoring, with a controller , a current drawn by the compressor's motor during the start relay function; with the start relay of the motor simultaneously activating, with the controller , a solenoid valve to open a compressor bypass loop line during the start relay function when the monitored current drawn by the compressor's motor is above a predetermined threshold; continue monitoring, with the controller , the current drawn by the compressor's motor after opening the compressor bypass loop line to determine if the current drawn by the compressor's motor is above or below the predetermined threshold; and shutting off, with the controller , the compressor's motor when the current drawn by the compressor's motor remains above a predetermined threshold.
A work machine comprising: a lower structure ; a slewing upper structure attached to the lower structure via a slewing mechanism ; an attachment , including at least a boom , and attached to the slewing upper structure ; a boom cylinder configured to drive the boom ; a work tool attached to the attachment ; and a controller , wherein the controller includes a weight calculating part configured to measure a weight of a transporting object to be transported by the work tool , based on a boom cylinder pressure of the boom cylinder , and a vibration control part configured to generate a command for reducing vibration of the attachment , wherein the work tool is a lifting magnet , and wherein the vibration control part generates a command for controlling a supply voltage with respect to the lifting magnet . a lower structure ; a slewing upper structure attached to the lower structure via a slewing mechanism ; an attachment , including at least a boom , and attached to the slewing upper structure ; a boom cylinder configured to drive the boom ; a work tool attached to the attachment ; and a controller , wherein the controller includes a weight calculating part configured to measure a weight of a transporting object to be transported by the work tool , based on a boom cylinder pressure of the boom cylinder , and a vibration control part configured to generate a command for reducing vibration of the attachment , a weight calculating part configured to measure a weight of a transporting object to be transported by the work tool , based on a boom cylinder pressure of the boom cylinder , and a vibration control part configured to generate a command for reducing vibration of the attachment , wherein the work tool is a lifting magnet , and wherein the vibration control part generates a command for controlling a supply voltage with respect to the lifting magnet .
A circuit arrangement for rotor-position-sensorless commutation of an EC motor, preferably for sinusoidal commutation of a rotor-position-sensorless EC synchronous machine in a stepless continuous process from startup to stationary operation of the motor, wherein the circuit arrangement for the acquisition of the terminal values of the motor is connected to said motor and comprises at least one Clarke-Park transformer for the transformation of the terminal values into a d/q observer coordinate system rotating synchronously with the rotor of the motor, as well as a detector which is designed for the determination of minimum signal values for the activation of a coordinate system correction, an observer for estimating the EMF (electromotive force) and a PLL structure for orienting the observer coordinate system, wherein the PLL structure comprises a phase regulator and an oscillator , for regulating the angular offset Δθ B via a frequency input of the oscillator , and wherein, by means of the phase regulator , an unequivocal assignment of the rotation directions to the position of the coordinate systems occurs, and, in order to ensure an unequivocal assignment, the output saturation of the phase regulator is changed as a function of the mathematical sign of the q component of the EMF, and a saturation of the output rotation frequencies to the corresponding positive or negative range of values is carried out.
An agricultural working device including a towing vehicle , a front mowing mechanism coupled to the towing vehicle and at least one rear mowing mechanism coupled to the towing vehicle , with a man-machine interface which has input keys , and wherein by way of at least one of the input keys for the or each rear mowing mechanism it is possible to set an overlap or coverage with the front mowing mechanism between a first limit value corresponding to a maximum permissible overlap and a second limit value corresponding to a minimum permissible overlap, characterised in that the man-machine interface is so adapted that when for the respective rear mowing mechanism the first limit value and thus the maximum permissible overlap is set, with tap-like actuation of the respective input key for the respective rear mowing mechanism the second limit value and thus the minimum permissible overlap can be automatically set, when for the respective rear mowing mechanism the second limit value and thus the minimum permissible overlap is set, with tap-like actuation of the respective input key for the respective rear mowing mechanism the first limit value and thus the maximum permissible overlap can be automatically set, when for the respective rear mowing mechanism the first limit value or the second limit value is set, upon continuous actuation of the respective input key for the respective rear mowing mechanism , an overlap dependent on the length of the continuous actuation between the first limit value and the second limit value can be set, and when for the respective rear mowing mechanism an overlap between the first limit value and the second limit value is set upon tap-like actuation of the respective input key for the respective rear mowing mechanism the first limit value and thus the maximum permissible overlap can be automatically set.