mhurhangee/ep-ind-claims huggingface dataset:
A method for forming a printhead, the printhead including a high drop weight, HDW, drop generator and a light drop weight, LDW, drop generator, the method comprising: depositing a conductor layer over a starting wafer, wherein the starting wafer comprises control electronics for a printhead; etching a resistor window across the wafer, wherein the resistor window is an opening in the conductor layer; depositing a resistor layer over the conductor layer and resistor window; etching the resistor layer and conductor layer to form traces and resistors; depositing a passivation film over the traces and resistors; depositing an anticavitation film over the passivation film; forming a primer layer over the passivation film; designing flow structures to control the refill rate of the drop generators based, at least in part, on drop size by forming the flow structures over the primer layer; and forming caps and nozzles over the flow structures; wherein the flow structures include inflow regions to the HDW drop generator and to the LDW drop generator, wherein forming the primer layer includes maintaining the primer layer in the inflow region of the LDW drop generator and removing or thinning the primer layer in the inflow region of the HDW drop generator; and wherein the HDW drop generator includes a larger nozzle and a wider resistor compared to a nozzle and resistor of the LDW drop generator. depositing a conductor layer over a starting wafer, wherein the starting wafer comprises control electronics for a printhead; etching a resistor window across the wafer, wherein the resistor window is an opening in the conductor layer; depositing a resistor layer over the conductor layer and resistor window; etching the resistor layer and conductor layer to form traces and resistors; depositing a passivation film over the traces and resistors; depositing an anticavitation film over the passivation film; forming a primer layer over the passivation film; designing flow structures to control the refill rate of the drop generators based, at least in part, on drop size by forming the flow structures over the primer layer; and forming caps and nozzles over the flow structures; wherein the flow structures include inflow regions to the HDW drop generator and to the LDW drop generator, wherein forming the primer layer includes maintaining the primer layer in the inflow region of the LDW drop generator and removing or thinning the primer layer in the inflow region of the HDW drop generator; and wherein the HDW drop generator includes a larger nozzle and a wider resistor compared to a nozzle and resistor of the LDW drop generator.
Operating arrangement with a module enclosure and with a withdrawable frame, having at least one catch spring projecting from the module enclosure by means of which the module enclosure can be latched to the withdrawable frame and which can be retracted into the module enclosure for inserting the module enclosure into the withdrawable frame and for unlocking purposes, whereby the catch spring is coupled to a slider which is supported on the module enclosure and is displaceable against the force of a spring element in the direction of inserting the module enclosure, characterised in that the withdrawable frame is connected on one side to an operating panel which forms a control surface on its front face, that the catch spring has a latching hook which can be moved by a displacement of the slider into a position in which the catch spring presses the latching hook into a catch recess or indentation on the withdrawable frame, and that the displacement of the slider causes a tensioning of the spring element which tries to drive the slider back into its original position by means of its spring force acting between the module enclosure and the slider and, in the process, due to the latching hook being connected to the slider which is hooked into the withdrawable frame, inversely exerts a force action on the module enclosure which presses a front face of the module enclosure against a surface area on the rear of the operating panel.
A method of transferring data between two caches characterised by: initiating, with a first message sent between a first processor and a second processor, a transfer of data between a first cache associated with the first processor and a second cache associated with the second processor, wherein the first processor and the second processor are of different types; transferring the data directly from the first cache to the second cache in response to the first message; and sending a second message from the second processor to the first processor indicating that the data transfer is complete. initiating, with a first message sent between a first processor and a second processor, a transfer of data between a first cache associated with the first processor and a second cache associated with the second processor, wherein the first processor and the second processor are of different types; transferring the data directly from the first cache to the second cache in response to the first message; and sending a second message from the second processor to the first processor indicating that the data transfer is complete.
An overpressure or relief valve for a buoyancy compensator device for underwater use of the type comprising an expandable bag internally provided with at least one air chamber, the valve comprising at least one first mobile shutter element configured to occlude at least one corresponding hole formed on an abutment plate that is configured to be applied on a wall of said air chamber, said first mobile shutter element being operatively connected to a first end of a first elastic element, whereas a second end of said first elastic element is in turn operatively connected to an actuator element configured to counteract, in certain operating conditions of the valve, the elastic force of said first elastic element, so as to perform the selective opening and closing of the first mobile shutter element and, consequently, respectively allow or prevent air from said hole, and then from the inside of said air chamber, from passing towards one or more through holes formed on the outer body of the valve and vice versa, characterized in that said actuator element is an electric actuator element, actuated by an electric current.
A method for performing authentication of a terminal in a wireless local area network, wherein the method comprises: receiving (401, 501), by a wireless access point, AP, an association request sent by a terminal, wherein the association request comprises capability parameters of the terminal; sending (403, 502), by the wireless AP, an authentication request to an authentication server, wherein the authentication request comprises an authentication credential, the authentication credential comprises a feature code and a sender address of the association request, the feature code is a function of the capability parameters, and the sender address of the association request is a medium access control, MAC, address of the terminal; and receiving (411, 504), by the wireless AP, an authentication result of the terminal sent by the authentication server, wherein the authentication result is determined by the authentication server based on determining whether the MAC address of the terminal and the feature code are stored in the authentication server. receiving (401, 501), by a wireless access point, AP, an association request sent by a terminal, wherein the association request comprises capability parameters of the terminal; sending (403, 502), by the wireless AP, an authentication request to an authentication server, wherein the authentication request comprises an authentication credential, the authentication credential comprises a feature code and a sender address of the association request, the feature code is a function of the capability parameters, and the sender address of the association request is a medium access control, MAC, address of the terminal; and receiving (411, 504), by the wireless AP, an authentication result of the terminal sent by the authentication server, wherein the authentication result is determined by the authentication server based on determining whether the MAC address of the terminal and the feature code are stored in the authentication server.
Process for preparing aniline or an aniline conversion product, comprising the steps of: providing a solution of aminobenzoic acid in aniline, with establishment of a proportion by mass of aniline in the solution based on the total mass of aminobenzoic acid and aniline in the range from 20% to 85%; converting aminobenzoic acid containing in the solution provided in step to aniline in a reactor by thermally decarboxylating at a temperature in the range from 165°C to 500°C without the presence of any catalyst extraneous to the system; optionally converting aniline obtained in step to an aniline conversion product. providing a solution of aminobenzoic acid in aniline, with establishment of a proportion by mass of aniline in the solution based on the total mass of aminobenzoic acid and aniline in the range from 20% to 85%; converting aminobenzoic acid containing in the solution provided in step to aniline in a reactor by thermally decarboxylating at a temperature in the range from 165°C to 500°C without the presence of any catalyst extraneous to the system; optionally converting aniline obtained in step to an aniline conversion product.
A method for transmitting control information and data information over ( L 1 + L 2) MIMO layers, where L 1 >=1, L 2 >=1,the method comprising: generating a plurality of control modulation symbols from the control information; filling L 1 layers by mapping the plurality of control modulation symbols to the L 1 layers; generating a plurality of data modulation symbols from the data information; mapping the data modulation symbols to the L 2 layers, where the L 2 layers do not overlap with the L 1 layers; and transmitting the data modulation symbols and the control modulation symbols on the L 1 layers and the L 2 layers simultaneously. generating a plurality of control modulation symbols from the control information; filling L 1 layers by mapping the plurality of control modulation symbols to the L 1 layers; generating a plurality of data modulation symbols from the data information; mapping the data modulation symbols to the L 2 layers, where the L 2 layers do not overlap with the L 1 layers; and transmitting the data modulation symbols and the control modulation symbols on the L 1 layers and the L 2 layers simultaneously.
A vending machine, comprising: a display; a non-secured touch controller operatively connected to the display and configured to receive input data from a touchscreen function of the display; a PIN entry device PED comprising a secure controller operatively connected to the display and configured to secure the display by managing the display data transmitted to the display; and an auxiliary feature processor communicating with the secure controller via a secure channel, wherein the auxiliary feature processor comprises a system on module SoM that establishes the secure channel with the secure controller, and a secure chip, wherein the SoM is operatively coupled to the secure chip that stores security information for establishing the secure channel with the secure controller, wherein the secure chip provides the security information to the SoM based at least in part on the secure chip verifying an identification parameter of the SoM, the auxiliary feature processor being operative to manage access of one or more applications run on the auxiliary feature processor to the display via the secure controller, wherein the managing by the auxiliary feature processor of the access of the one or more applications to the display via the secure controller comprises: the SoM evaluating respective signatures of the one or more applications by verifying whether the one or more applications are signed by a trusted or otherwise authenticated entity; the SoM allowing appropriately signed applications to display data on the display via the SoM and secure controller; and the SoM allowing appropriately signed applications to receive, for processing, touch screen input events associated with touch interactions on the display and captured by the non-secured touch controller, from the non-secured touch controller via the SoM. a display; a non-secured touch controller operatively connected to the display and configured to receive input data from a touchscreen function of the display; a PIN entry device PED comprising a secure controller operatively connected to the display and configured to secure the display by managing the display data transmitted to the display; and an auxiliary feature processor communicating with the secure controller via a secure channel, wherein the auxiliary feature processor comprises a system on module SoM that establishes the secure channel with the secure controller, and a secure chip, wherein the SoM is operatively coupled to the secure chip that stores security information for establishing the secure channel with the secure controller, wherein the secure chip provides the security information to the SoM based at least in part on the secure chip verifying an identification parameter of the SoM, the auxiliary feature processor being operative to manage access of one or more applications run on the auxiliary feature processor to the display via the secure controller,
Procedure for the energy-optimised operation of an open pump system for the transportation of liquids, with at least one pump assembly with speed control that conveys the liquid out of a container, in which, depending on at least one system characteristic curve (H A (Q,h)) and through the evaluation of a mathematical function (equation 12a, 12b) that assigns the required volume-specific energy consumption (P Q (Q, h), P Q (n, h)) of the pump assembly to a flow rate to be conveyed, the rotational speed (n opt, n(Q opt,h)) is calculated at which the volume-specific energy consumption (P Q (Q opt, h), P Q (n, h)) is minimised and the pump assembly is operated at this calculated optimal rotational speed (n opt, n(Q opt, h)), characterised by the system characteristic curve (H A (Q,h)) being specified by the manufacturer, and the pump performance map (H P (Q, n)), the power input map (P(Q, n)) and the system characteristic curve (H A (Q, h)) being stored in pump electronics assigned to the pump assembly and the pump assembly automatically calculating and setting the optimal rotational speed, in which, to determine the volume-flow-specific energy consumption (P Q), the pump performance map (H P (Q, n)) and the power input map (P(Q, n)) of the pump assembly being examined and at least one system characteristic curve (H A (Q, h)) are used.
A composite hydrophilic porous membrane comprising a porous fluoropolymer support and a coating comprising a crosslinked polymer network, wherein the composite hydrophilic membrane is produced by coating the porous fluoropolymer support with a coating composition comprising a solvent, a crosslinking agent, a photoinitiator, and a telechelic polymer comprising a backbone made of polymerized 1,5-cyclooctadiene repeat units, wherein at least one of said repeat units comprises a pendant hydrophilic group attached thereto and at least another one of said repeat units comprises a pendant fluorinated hydrophobic group attached thereto.
A heat exchanger arrangement (12, 120) for a heating device of a motor vehicle, having a housing (30, 128) for receiving an element (32, 141) which generates an alternating magnetic field, with an element which generates an alternating magnetic field, and at least one preferably metallic surface heating element (24, 26, 28, 121, 123) around which a fluid can flow on one side or on both sides, wherein a fluid inlet and a fluid outlet are arranged on the housing (30, 128), wherein a connecting flange with an integrated fluid inlet and fluid outlet is provided, wherein the connecting flange has a fixation arrangement (80a, 80b) on the inside for positioning the at least one surface heating element (24, 26, 28), characterised in that the connecting flange (22, 100, 100a) has a guiding arrangement (82, 109) for the element (32, 141) which generates an alternating magnetic field, in particular an induction coil unit (32, 34, 141).
Motor-vehicle-lock arrangement having a motor-vehicle lock for a motor-vehicle door and having an adjustable functional element which is separate from the motor-vehicle lock, wherein the motor-vehicle lock has a latch mechanism and a catch as locking elements, wherein the latch mechanism is able to be brought into a preliminary locking position and into a main locking position, in which it is in holding engagement with a locking part, wherein the latch mechanism is able to be brought into an open position, in which the locking part is in a state released from the latch mechanism, wherein the droppedin catch holds the latch mechanism in the locking position, and wherein, during an opening procedure, the catch is able to be lifted out of holding engagement with the latch mechanism, which is in the locking position, wherein the motor-vehicle lock has a drive arrangement which forms with at least one of the locking elements (7, 8) a drive train for motorized adjustment of the locking element (7, 8), wherein the drive arrangement forms with the catch a drive train for adjustment of the catch, wherein the drive arrangement forms with the latch mechanism a drive train for adjustment of the latch mechanism, and wherein the drive train forms with the latch mechanism a drive train for opening of the motor-vehicle door by pushing, and wherein the functional element is a door outer handle which is adjustable between a deactivation position and an engagement position, characterized in that, during the opening procedure, the motorized adjustment of the catch brings about an adjustment of the door outer handle into the engagement position in that a component of the respective drive train, made up of drive arrangement and catch, is coupled or couplable to the door outer handle. wherein the drive arrangement forms with the catch a drive train for adjustment of the catch, wherein the drive arrangement forms with the latch mechanism a drive train for adjustment of the latch mechanism, and wherein the drive train forms with the latch mechanism a drive train for opening of the motor-vehicle door by pushing, and wherein the functional element is a door outer handle which is adjustable between a deactivation position and an engagement position, characterized in that, during the opening procedure, the motorized adjustment of the catch brings about an adjustment of the door outer handle into the engagement position in that a component of the respective drive train, made up of drive arrangement and catch, is coupled or couplable to the door outer handle.
A method for separating blood cell components from a biological fluid, comprising: (a) capturing white blood cells and platelets on a blood cell separation material by contacting the biological fluid with the blood cell separation material, thereby providing a red blood cell-rich fraction; and (b) separating a white blood cell-rich fraction from the resulting blood cell separation material using a separation solution; wherein the blood cell separation material comprises a nonwoven fabric; and wherein the nonwoven fabric has a density K of 2.0 × 10 4 to 1.9 × 10 5 g/m 3 and has a fiber diameter of 1 μm - to 7 μm, and the white blood cell-rich fraction is a monunuclear cell-rich fraction, wherein a method for treatment of the human or animal body by therapy and/or a diagnostic method practiced on the human or animal body are/is excluded. (a) capturing white blood cells and platelets on a blood cell separation material by contacting the biological fluid with the blood cell separation material, thereby providing a red blood cell-rich fraction; and (b) separating a white blood cell-rich fraction from the resulting blood cell separation material using a separation solution;
A lubricating oil base stock consisting of one or more compounds represented by the formula wherein R is a substituted or unsubstituted alkyl group having from 4 to 40 carbon atoms; and n is a value from 1 to 12; wherein said lubricating oil base stock has a viscosity from 1 to 10 cSt at 100°C as determined by ASTM D-445, a viscosity index from -100 to 300 as determined by ASTM D-2270, and a Noack volatility of no greater than 50 percent as determined by ASTM D-5800. wherein R is a substituted or unsubstituted alkyl group having from 4 to 40 carbon atoms; and n is a value from 1 to 12; wherein said lubricating oil base stock has a viscosity from 1 to 10 cSt at 100°C as determined by ASTM D-445, a viscosity index from -100 to 300 as determined by ASTM D-2270, and a Noack volatility of no greater than 50 percent as determined by ASTM D-5800.
A computer implemented method for implementing run-time instrumentation directed sampling, the method comprising: fetching a run-time instrumentation next instruction from an instruction stream, the instruction stream comprising the run-time instrumentation next instruction followed by a next sequential instruction in program order; and executing the run-time instrumentation next instruction by a processor, the executing comprising: determining whether a current run-time instrumentation state enables setting a sample point on a sample instruction for reporting run-time instrumentation information during program execution; based on the current run-time instrumentation state enabling setting the sample point, interpreting the NSI as a sample instruction for causing a run-time instrumentation event; and based on executing the NSI sample instruction, causing the run-time instrumentation event to record run-time instrumentation information into a run-time instrumentation program buffer as a reporting group. fetching a run-time instrumentation next instruction from an instruction stream, the instruction stream comprising the run-time instrumentation next instruction followed by a next sequential instruction in program order; and executing the run-time instrumentation next instruction by a processor, the executing comprising: determining whether a current run-time instrumentation state enables setting a sample point on a sample instruction for reporting run-time instrumentation information during program execution; based on the current run-time instrumentation state enabling setting the sample point, interpreting the NSI as a sample instruction for causing a run-time instrumentation event; and based on executing the NSI sample instruction, causing the run-time instrumentation event to record run-time instrumentation information into a run-time instrumentation program buffer as a reporting group. determining whether a current run-time instrumentation state enables setting a sample point on a sample instruction for reporting run-time instrumentation information during program execution; based on the current run-time instrumentation state enabling setting the sample point, interpreting the NSI as a sample instruction for causing a run-time instrumentation event; and based on executing the NSI sample instruction, causing the run-time instrumentation event to record run-time instrumentation information into a run-time instrumentation program buffer as a reporting group.