mhurhangee/patent-ind-claim-en huggingface dataset:
A protease variant, comprising a substitution in a position corresponding to position 121 in SEQ ID NO: 3, wherein (a) the variant has a sequence identity to SEQ ID NO: 3 of at least 75% and less than 100%, and (b) the variant has protease activity. (a) the variant has a sequence identity to SEQ ID NO: 3 of at least 75% and less than 100%, and (b) the variant has protease activity.
A joint with adjustable angular positioning around a spindle between a first member and a second member , the joint including at least one first toothed disc secured in rotation with the first member and at least one second toothed disc secured in rotation with the second member , the discs being positioned relative to one another so as to cooperate with one another by engagement of their toothings so as to angularly lock one member relative to the other, a first compression spring being arranged between the discs so as to separate them from one another, the articulation including a locking sleeve positioned above one of the discs and pivoting around the spindle , drive means being provided between the sleeve and the spindle such that the pivoting of the sleeve drives the axial movement thereof and the pushing of one disc toward the other disc against the action of the first spring , the joint being characterised in that the drive means comprise at least one first helical groove carried by the spindle and in which circulates a radial pin that is secured to the sleeve , the rotation of the sleeve causing the pin to move in the first groove and causing the axial movement of the sleeve .
A vortex flowmeter for measuring a flow rate of a process fluid , comprising: a vortex generator arranged to generate vortices in a flow of the process fluid ; a vortex sensor arranged to sense the vortices in the flow of the process fluid and responsively provide a sensor output related to the flow rate of the process fluid ; measurement circuitry configured to receive the sensor output and provide a digital output indicative of the amplitude and frequency of the vortices ; a memory configured to store measurements based upon the digital output; and diagnostics circuitry coupled to the memory arranged to detect instability in the flow of the process fluid based upon the measurements stored in the memory ; wherein the diagnostics circuitry is configured to correct for errors in a measurement flow rate based upon detected instability in the flow of the process fluid . a vortex generator arranged to generate vortices in a flow of the process fluid ; a vortex sensor arranged to sense the vortices in the flow of the process fluid and responsively provide a sensor output related to the flow rate of the process fluid ; measurement circuitry configured to receive the sensor output and provide a digital output indicative of the amplitude and frequency of the vortices ; a memory configured to store measurements based upon the digital output; and diagnostics circuitry coupled to the memory arranged to detect instability in the flow of the process fluid based upon the measurements stored in the memory ; wherein the diagnostics circuitry is configured to correct for errors in a measurement flow rate based upon detected instability in the flow of the process fluid .
A nanopore cell , comprising: a titanium nitride (TiN) counter electrode configured to be at a first electric potential; a working electrode configured to be at a second electric potential; and an insulating wall , wherein the insulating wall and the working electrode form at least a portion of a well which is configured to contain an electrolyte at a voltage that is at least a portion of an electric potential difference between the first electric potential of the titanium nitride counter electrode and the second electric potential of the working electrode . a titanium nitride (TiN) counter electrode configured to be at a first electric potential; a working electrode configured to be at a second electric potential; and an insulating wall , wherein the insulating wall and the working electrode form at least a portion of a well which is configured to contain an electrolyte at a voltage that is at least a portion of an electric potential difference between the first electric potential of the titanium nitride counter electrode and the second electric potential of the working electrode .
Oxygenator with a housing wall , which delimits a housing space , with a blood inlet , a blood outlet , a gas inlet and a gas outlet , and a heating element to control the temperature of the blood flowing through the housing space , wherein the heating element has a radiation source and a receiver , which converts the radiation of the radiation source into heat, characterized in that the receiver delivers a different heating power at various locations in the housing space , or has a plurality of receiver components , which can be positioned at various locations in the oxygenator, and in that the receiver has a plurality of receiver components , which can be controlled separately from one another.
A machine comprising: an elongate frame ; a rail supported on the frame having opposed first and second ends; a carriage supported on the frame and moveable along the rail between the first and second ends; a slide cartridge mounted on the carriage and configured to guide the carriage along the rail , the slide cartridge comprising: a base member , a channel having a pair of opposed walls that extend from the base member configured to engage the rail ; a rotary drive supported on the carriage ; and a drill string having opposed first and second ends, the first end being operatively connected to the rotary drive ; characterized in that a rib is formed on an outer surface of each wall of the slide cartridge , the rib extending from the base member to a distal edge of the wall , and the carriage has a mounting aperture configured to position the slide cartridge to engage the rail , the aperture having a notch formed to receive the rib . an elongate frame ; a rail supported on the frame having opposed first and second ends; a carriage supported on the frame and moveable along the rail between the first and second ends; a slide cartridge mounted on the carriage and configured to guide the carriage along the rail , the slide cartridge comprising: a base member , a channel having a pair of opposed walls that extend from the base member configured to engage the rail ; a base member , a channel having a pair of opposed walls that extend from the base member configured to engage the rail ; a rotary drive supported on the carriage ; and a drill string having opposed first and second ends, the first end being operatively connected to the rotary drive ; characterized in that a rib is formed on an outer surface of each wall of the slide cartridge , the rib extending from the base member to a distal edge of the wall , and the carriage has a mounting aperture configured to position the slide cartridge to engage the rail , the aperture having a notch formed to receive the rib .
A computer-implemented method comprising: receiving a request at a protected device to communicate with a second device , the request including information associated with the second device; accessing a list of trusted devices; and configuring a firewall associated with the protected device to allow communication between the protected device and the second device only if the information associated with the second device correlates to information on the list of trusted devices, wherein allowing communication includes enabling one or more types of communication between the protected device and the second device consistent with a policy associated with the list of trusted devices, the types of communication including rights to write data and/or commands to the protected device, rights to change settings on the protected device, and/or rights to read-only actions with the protected device. receiving a request at a protected device to communicate with a second device , the request including information associated with the second device; accessing a list of trusted devices; and configuring a firewall associated with the protected device to allow communication between the protected device and the second device only if the information associated with the second device correlates to information on the list of trusted devices, wherein allowing communication includes enabling one or more types of communication between the protected device and the second device consistent with a policy associated with the list of trusted devices, the types of communication including rights to write data and/or commands to the protected device, rights to change settings on the protected device, and/or rights to read-only actions with the protected device.
An adapter for connecting an electronic device having an electric plug-in interface, comprising: an adapter mechanism comprising an adapter controller , an electric connection plug that can be plugged into the electric plug-in interface so as to be electrically connected to the electric plug-in interface, a connecting wire electrically connected to the adapter controller and the electric connection plug , and at least one connecting base electrically connected to the adapter controller; and a fixing mechanism connected to the adapter mechanism and provided with a plug-in slot for plug-in connection for the electronic device, with a static friction force being provided between a slot wall of the plug-in slot and the electronic device to restrict the electronic device from being separated from the plug-in slot when the electronic device is plugged into the plug-in slot, characterized in that the fixing mechanism comprises a fixing plate and a plug-in block that is connected to the fixing plate and is configured in an L-shape; and in that the fixing plate is integrally formed with the plug-in block , and the adapter further comprises a gasket that can be plugged into the plug-in slot. an adapter mechanism comprising an adapter controller , an electric connection plug that can be plugged into the electric plug-in interface so as to be electrically connected to the electric plug-in interface, a connecting wire electrically connected to the adapter controller and the electric connection plug , and at least one connecting base electrically connected to the adapter controller; and a fixing mechanism connected to the adapter mechanism and provided with a plug-in slot for plug-in connection for the electronic device, with a static friction force being provided between a slot wall of the plug-in slot and the electronic device to restrict the electronic device from being separated from the plug-in slot when the electronic device is plugged into the plug-in slot, characterized in that the fixing mechanism comprises a fixing plate and a plug-in block that is connected to the fixing plate and is configured in an L-shape; and in that the fixing plate is integrally formed with the plug-in block , and the adapter further comprises a gasket that can be plugged into the plug-in slot.
A phase difference compensating element comprising: a birefringent layer formed with a film stack of a plurality of obliquely-deposited films, each of the obliquely-deposited films having a thickness equal to or smaller than a used wavelength; and a phase-difference-adding antireflection layer configured to provide an arbitrary phase difference, in addition to a phase difference in obliquely-incident transmitted light in the birefringent layer , the phase-difference-adding antireflection layer being formed with a film stack of two or more kinds of dielectric films having different refractive indexes, characterized in that the phase-difference-adding antireflection layer provides the opposite phase difference to the phase difference in obliquely-incident transmitted light in the birefringent layer , and wherein the phase-difference-adding antireflection layer comprises a number of dielectric films which is 8 or larger. a birefringent layer formed with a film stack of a plurality of obliquely-deposited films, each of the obliquely-deposited films having a thickness equal to or smaller than a used wavelength; and a phase-difference-adding antireflection layer configured to provide an arbitrary phase difference, in addition to a phase difference in obliquely-incident transmitted light in the birefringent layer , the phase-difference-adding antireflection layer being formed with a film stack of two or more kinds of dielectric films having different refractive indexes, characterized in that the phase-difference-adding antireflection layer provides the opposite phase difference to the phase difference in obliquely-incident transmitted light in the birefringent layer , and wherein the phase-difference-adding antireflection layer comprises a number of dielectric films which is 8 or larger.
A system for transferring data between a server and a ventilator , wherein the ventilator comprises: a source for breathing gas and at least one interface for allowing for data transfer, a device for gathering data , a control unit , a memory , a time unit for setting a system time , characterized in that the ventilator stores the data in the memory at least temporarily and assigns the system time to the data as a time stamp , wherein the system time is sent via the interface to the server , wherein the server comprises a server time unit for providing a server time and a comparison apparatus , wherein the comparison apparatus compares the server time with the system time and, in the event of a defined match between the server time and the system time , transfers the data from the ventilator and stores said data in a server memory and wherein the server is configured to evaluate a deviation between the system time and the server time and to transfer a corresponding evaluation to the ventilator , wherein the ventilator blocks transfer of data from the ventilator in the event of a defined deviation between the server time and the system time until the system time is newly set such that a defined match with the server time is achieved, wherein the newly set system time is applied to the time stamp in the memory of the ventilator such that a new time stamp is assigned to the data , whereupon the data are transferred with the new time stamp to the server .
Thrust nozzle with a convergent wall section , a throat section and a divergent wall section , wherein - the divergent wall section has a first region adjacent to the throat section , the wall contour of which region corresponds to a truncated ideal nozzle, - the divergent wall section has a second region facing away from the throat section , which region has a wall contour deviating from the first region , characterised in that - the transition from the wall contour of the first region to the wall contour of the second region is continuous, wherein the contour angle (a) corresponding to a tangential angle to the wall, at the last point of the wall contour of the first region, corresponds to the contour angle (a) at the first point of the wall contour of the second region , and - the second region of the divergent wall section is paraboloid-shaped. - the divergent wall section has a first region adjacent to the throat section , the wall contour of which region corresponds to a truncated ideal nozzle, - the divergent wall section has a second region facing away from the throat section , which region has a wall contour deviating from the first region , characterised in that - the transition from the wall contour of the first region to the wall contour of the second region is continuous, wherein the contour angle (a) corresponding to a tangential angle to the wall, at the last point of the wall contour of the first region, corresponds to the contour angle (a) at the first point of the wall contour of the second region , and - the second region of the divergent wall section is paraboloid-shaped.
Method for recycling a multilayered panel , wherein the panel has a base layer made from a wood material and a top layer , wherein the top layer is separated from the base layer by a mechanical separation method, wherein the shape of the base layer is retained and is fed to a recycling process for the recycling of the base layer , characterized in that the panel optionally has a bottom layer opposite the top layer , which bottom layer is joined to the base layer , wherein the panel is divided into longitudinal strips before separating the top layer and/or the bottom layer , wherein the strips are separated from the top layer and/or the bottom layer .
A membrane vacuum pump , comprising at least one working space which is bounded by a membrane deformable to change the size of the working space and by a wall in which at least one inlet and at least one outlet are formed for a medium which is sucked into the working space which increases in size in so doing in a suction phase via the inlet and which is expelled out of the working space which decreases in size in so doing in a compression phase via the outlet ; and comprising a controllable actuator unit for deforming the membrane by a contactless action on the membrane by means of electrical and/or magnetic fields, wherein the working space has an axis along which the membrane is deformable and which is surrounded by an annular sealing region between the membrane and the wall , characterized in that the inlet comprises one or more openings which are formed in the wall in the region of the annular sealing region between the membrane and the wall , with the inlet being closable by means of the membrane .
A beam shaping apparatus for use in an X-Ray analysis device , wherein the X-Ray analysis device comprises a sample holder , for holding a sample at a variable tilt angle (χ) about a tilt axis , the beam-shaping apparatus comprising: a beam shaping element adapted to receive an input beam from an X-Ray source , and generate an output beam having an output beam shape, and a controller operatively coupleable in use with the X-Ray analysis device, the controller adapted to control movement of the output beam shape in dependence upon the variable tilt angle (χ) of the sample , wherein the output beam shape is an elongate shape, defining a longitudinal axis and a transverse axis, wherein the movement includes rotation, and wherein the controller is configured to control rotation of the output beam shape so as to maintain the longitudinal axis substantially parallel with a plane defined by a surface of the sample held in use by the sample holder . a beam shaping element adapted to receive an input beam from an X-Ray source , and generate an output beam having an output beam shape, and a controller operatively coupleable in use with the X-Ray analysis device, the controller adapted to control movement of the output beam shape in dependence upon the variable tilt angle (χ) of the sample , wherein the output beam shape is an elongate shape, defining a longitudinal axis and a transverse axis, wherein the movement includes rotation, and wherein the controller is configured to control rotation of the output beam shape so as to maintain the longitudinal axis substantially parallel with a plane defined by a surface of the sample held in use by the sample holder .
A method for depositing a silicon-containing film which is a stoichiometric or non-stoichiometric silicon oxide or silicon dioxide film on at least one surface of a device comprising a metal oxide or a thin film transistor device, the method comprising: providing the at least one surface of the device in a reaction chamber; introducing into the reaction chamber triethylsilane as alkylsilane precursor; introducing into the reaction chamber an oxygen source; and depositing by a deposition process the silicon containing film on the at least one surface of the device at one or more reaction temperatures ranging from 25°C to 150°C wherein the silicon containing film comprises a thickness ranging from 2 nanometers to 200 nanometers and a density of 2.2 g/cm 3 or greater; wherein the deposition process is plasma enhanced chemical vapor deposition (PECVD). providing the at least one surface of the device in a reaction chamber; introducing into the reaction chamber triethylsilane as alkylsilane precursor; introducing into the reaction chamber an oxygen source; and depositing by a deposition process the silicon containing film on the at least one surface of the device at one or more reaction temperatures ranging from 25°C to 150°C wherein the silicon containing film comprises a thickness ranging from 2 nanometers to 200 nanometers and a density of 2.2 g/cm 3 or greater; wherein the deposition process is plasma enhanced chemical vapor deposition (PECVD).
A power converter configured to mutually convert power between AC and DC the power converter comprising: first, second, third, and fourth switching elements having self-extinguishing properties and configured to be connected in series to a DC power supply in an ascending order, a collector of the first switching element being connected to a DC positive terminal of the DC power supply, an emitter of the fourth switching element being connected to a DC negative terminal of the DC power supply; first and second chopper cell group circuits each comprising one or more chopper cells (ch_up1, ..., ch_un1, ...) connected in series that comprise a leg having two self-extinguishing type switching elements (sw_ch1, sw_ch2) connected in series, and a capacitor (c_ch) connected to the leg in parallel therewith; and wherein: the second switching element has a collector connected to a positive terminal of the first chopper cell group circuit the third switching element has an emitter connected to a negative terminal of the second chopper cell group circuit ; and the first chopper cell group circuit has a negative terminal connected to a positive terminal of the second chopper cell, characterized by first and second capacitors connected with each other in series and connected in parallel with the DC power supply , a DC neutral point divided by the first and second capacitors, a reactor inserted in a path from a connection node between the second switching element and the third switching element to the DC neutral point, wherein a connection node between the first and second chopper cell group circuits is configured to serve as an output AC terminal. first, second, third, and fourth switching elements having self-extinguishing properties and configured to be connected in series to a DC power supply in an ascending order, a collector of the first switching element being connected to a DC positive terminal of the DC power supply, an emitter of the fourth switching element being connected to a DC negative terminal of the DC power supply; first and second chopper cell group circuits each comprising one or more chopper cells (ch_up1, ..., ch_un1, ...) connected in series that comprise a leg having two self-extinguishing type switching elements (sw_ch1, sw_ch2) connected in series, and a capacitor (c_ch) connected to the leg in parallel therewith; and wherein: the second switching element has a collector connected to a positive terminal of the first chopper cell group circuit the third switching element has an emitter connected to a negative terminal of the second chopper cell group circuit ; and the first chopper cell group circuit has a negative terminal connected to a positive terminal of the second chopper cell, the second switching element has a collector connected to a positive terminal of the first chopper cell group circuit the third switching element has an emitter connected to a negative terminal of the second chopper cell group circuit ; and the first chopper cell group circuit has a negative terminal connected to a positive terminal of the second chopper cell,