mhurhangee/ep-ind-claims huggingface dataset:
An isolated polypeptide having protease activity selected from the group consisting of: a. a polypeptide having at least 75% sequence identity, at least 80% sequence identity, at least 85% sequence identity, at least 90% sequence identity, at least 95% sequence identity, at least 96% sequence identity, at least 97% sequence identity, at least 98% sequence identity or at least 99% sequence identity to the mature polypeptide of SEQ ID NO: 2 or SEQ ID NO: 4; and b. a polypeptide encoded by a polynucleotide having at least 75% sequence identity, at least 80% sequence identity, at least 85% sequence identity, at least 90% sequence identity, at least 95% sequence identity, at least 96% sequence identity, at least 97% sequence identity, at least 98% sequence identity or at least 99% sequence identity to the mature polypeptide coding sequence of SEQ ID NO: 1 or SEQ ID NO: 3. a. a polypeptide having at least 75% sequence identity, at least 80% sequence identity, at least 85% sequence identity, at least 90% sequence identity, at least 95% sequence identity, at least 96% sequence identity, at least 97% sequence identity, at least 98% sequence identity or at least 99% sequence identity to the mature polypeptide of SEQ ID NO: 2 or SEQ ID NO: 4; and b. a polypeptide encoded by a polynucleotide having at least 75% sequence identity, at least 80% sequence identity, at least 85% sequence identity, at least 90% sequence identity, at least 95% sequence identity, at least 96% sequence identity, at least 97% sequence identity, at least 98% sequence identity or at least 99% sequence identity to the mature polypeptide coding sequence of SEQ ID NO: 1 or SEQ ID NO: 3.
A method, performed by wireless device, for data transmission in a wireless communication system, the method comprising: receiving discovery signals scrambled with a virtual cell identification, ID, which is shared in a virtual cell group including two or more cells; receiving a dormant physical broadcast channel, d-PBCH, carrying a system information including a configuration for a physical random access channel, PRACH, from a master cell in a dormant state among the virtual cell group; measuring a path-loss by reading the d-PBCH assuming power used for the d-PBCH;and performing a random access channel, RACH, procedure toward a cell which is selected as a best cell, based on the virtual cell ID and the configuration for the PRACH. receiving discovery signals scrambled with a virtual cell identification, ID, which is shared in a virtual cell group including two or more cells; receiving a dormant physical broadcast channel, d-PBCH, carrying a system information including a configuration for a physical random access channel, PRACH, from a master cell in a dormant state among the virtual cell group; measuring a path-loss by reading the d-PBCH assuming power used for the d-PBCH;and performing a random access channel, RACH, procedure toward a cell which is selected as a best cell, based on the virtual cell ID and the configuration for the PRACH.
A method of producing a security laminate/foil comprising first applying a substantially all-over coating of a high refractive index, HRI, material to a base film, and then applying a substantially all-over coating of a metallic material to form a metallic layer, and the metallic layer arranged to allow selective removal of portions thereof to generate required indicia, and the method further comprises applying an alkaline etchant to the metallic layer to effect the selective removal step, and which comprises applying a sufficient quantity of the etchant such that the etchant remains alkaline on reaching the HRI material underlying the metallic layer, and which step leaves the underlying HRI material substantially intact.
A sheet conveying apparatus structured so as to arrange a conveying roller along a conveying path for conveying sheets and suspend a conveying belt over the conveying roller, comprising: a top conveying roller (107a, 108a, 108d) with a top conveying belt (101a,101b) in contact with one surface of the sheets suspended over; a bottom conveying roller (108b, 108c) with a bottom conveying belt (102a, 102b) in contact with another surface of the sheets suspended over; and drive means (106a, 106b) for driving the top and bottom conveying belts (101a, 101b, 102a, 102b), characterized in that a take-in portion for holding and taking in the sheets by permitting the top conveying belt (101a, 101b) and the bottom conveying belt (102a, 102b) to make contact with each other; a first flange roller arranged at a leading edge of the take-in portion for composing the top conveying roller; and a second flange roller arranged just closely to an upstream side of the top conveying belt (101a, 101b) suspended over the first flange roller in a rotational direction, wherein a flange height of the first flange roller with the top conveying belt (101a, 101b) suspended over does not exceed the thickness of the top conveying belt (101a, 101b); and the flange height of the second flange roller with the top conveying belt (101a, 101b) suspended over is at least 3 times of the thickness of the top conveying belt (101a, 101b). a top conveying roller (107a, 108a, 108d) with a top conveying belt (101a,101b) in contact with one surface of the sheets suspended over; a bottom conveying roller (108b, 108c) with a bottom conveying belt (102a, 102b) in contact with another surface of the sheets suspended over; and drive means (106a, 106b) for driving the top and bottom conveying belts (101a, 101b, 102a, 102b), characterized in that a take-in portion for holding and taking in the sheets by permitting the top conveying belt (101a, 101b) and the bottom conveying belt (102a, 102b) to make contact with each other; a first flange roller arranged at a leading edge of the take-in portion for composing the top conveying roller; and a second flange roller arranged just closely to an upstream side of the top conveying belt (101a, 101b) suspended over the first flange roller in a rotational direction, wherein a flange height of the first flange roller with the top conveying belt (101a, 101b) suspended over does not exceed the thickness of the top conveying belt (101a, 101b); and the flange height of the second flange roller with the top conveying belt (101a, 101b) suspended over is at least 3 times of the thickness of the top conveying belt (101a, 101b).
Coil of a stator winding of an electric machine, - wherein the coil consists of a number of windings, which are wound together with a number of layers of a mica strip, onto which, in turn, a number of layers of a cover strip are wound, - wherein the cover strip has a sequence of two layers (17, 18), wherein these two layers (17, 18) are a woven fabric and a film in each case, wherein - the woven fabric consists of a glass fibre or of a first high-performance polymer and the film consists of a second high-performance polymer, - the first high-performance polymer is an aramid, - the second high performance polymer is a polyimide, - the woven fabric is facing away from the layers of the mica strip and the film is facing the layers of the mica strip, and - the coil is embodied as a three-dimensional form-wound coil, characterised in that the layers of the mica strip one below the other and the layers of the cover strip one below the other exhibit displacements against each other, wherein the coil is firstly wound as a flat coil, is then wound with the layers of the mica strip and the layers of the cover strip and is only then moulded to form the three-dimensional form-wound coil, so that the displacements occur as a result. - wherein the coil consists of a number of windings, which are wound together with a number of layers of a mica strip, onto which, in turn, a number of layers of a cover strip are wound, - wherein the cover strip has a sequence of two layers (17, 18), wherein these two layers (17, 18) are a woven fabric and a film in each case, wherein - the woven fabric consists of a glass fibre or of a first high-performance polymer and the film consists of a second high-performance polymer, - the first high-performance polymer is an aramid, - the second high performance polymer is a polyimide, - the woven fabric is facing away from the layers of the mica strip and the film is facing the layers of the mica strip, and - the coil is embodied as a three-dimensional form-wound coil,
A surface mount assembly (100, 1100) for securing an item (20, 1020) to a surface (10, 1010), the surface mount assembly (100, 1100) comprising: a mount fitting (202, 204, 1202, 2014) adapted for attachment to the item (20, 1020); a mount anchor (102, 104) adapted for attachment to the surface (10, 1010) and configured for locking engagement with the mount fitting (202, 204, 1202, 2014); characterised in that the surface mount assembly further comprises a catch (335, 355, 1335, 1355) configured to receive the mount fitting (202, 204, 1202, 2014) when disengaged from locking engagement with the mount anchor (102, 104) thereby stopping the item (20, 1020) from dropping due to gravity, wherein the catch (335, 355, 1335, 1355) is selectively moveable between a use position and a non-use position, wherein in the use position the catch (335, 355, 1335, 1355) is positioned to receive the mount fitting (202, 204, 1202, 2014) when disengaged from the mount anchor (102, 104) and in the non-use position the catch (335, 355, 1335, 1355) is not positioned to receive the mount fitting (202, 204, 1202, 2014) when disengaged from the mount anchor (102, 104). a mount fitting (202, 204, 1202, 2014) adapted for attachment to the item (20, 1020); a mount anchor (102, 104) adapted for attachment to the surface (10, 1010) and configured for locking engagement with the mount fitting (202, 204, 1202, 2014); characterised in that the surface mount assembly further comprises a catch (335, 355, 1335, 1355) configured to receive the mount fitting (202, 204, 1202, 2014) when disengaged from locking engagement with the mount anchor (102, 104) thereby stopping the item (20, 1020) from dropping due to gravity, wherein the catch (335, 355, 1335, 1355) is selectively moveable between a use position and a non-use position, wherein in the use position the catch (335, 355, 1335, 1355) is positioned to receive the mount fitting (202, 204, 1202, 2014) when disengaged from the mount anchor (102, 104) and in the non-use position the catch (335, 355, 1335, 1355) is not positioned to receive the mount fitting (202, 204, 1202, 2014) when disengaged from the mount anchor (102, 104).
Process for the treatment of solid wood wherein the process comprises the steps of: - impregnating wood with a solution comprising citric acid and sodium silicate, - curing the impregnated wood at a temperature of between 150-220°C, - wherein the ratio between citric acid and sodium silicate in the solution is between 1:5-1:10 (citric acid:sodium silicate). - impregnating wood with a solution comprising citric acid and sodium silicate, - curing the impregnated wood at a temperature of between 150-220°C, - wherein the ratio between citric acid and sodium silicate in the solution is between 1:5-1:10 (citric acid:sodium silicate).
A vehicle power steering system comprising an assist torque computing unit configured to: i) set a first assist torque component (Tal) based on a steering torque (Th) applied to a steering mechanism during a steering operation of a vehicle; ii) compute a target steered angle (θp*) of steered wheels of the vehicle based on the steering torque; iii) set a second assist torque component to be applied to the steering mechanism to maintain an actual steered angle of the steered wheels at the target steered angle; iv) set an assist torque corresponding to the first assist torque component and the second assist torque component; v) set an ideal steered angle (θLK) based on a travelling state of the vehicle; vi) compute a correction value (Δθp*) based on a deviation between the ideal steered angle and the actual steered angle; and vii) correct the target steered angle based on the correction value, the vehicle power steering system assisting the steering operation by applying the assist torque from an electric motor to the steering mechanism. i) set a first assist torque component (Tal) based on a steering torque (Th) applied to a steering mechanism during a steering operation of a vehicle; ii) compute a target steered angle (θp*) of steered wheels of the vehicle based on the steering torque; iii) set a second assist torque component to be applied to the steering mechanism to maintain an actual steered angle of the steered wheels at the target steered angle; iv) set an assist torque corresponding to the first assist torque component and the second assist torque component; v) set an ideal steered angle (θLK) based on a travelling state of the vehicle; vi) compute a correction value (Δθp*) based on a deviation between the ideal steered angle and the actual steered angle; and vii) correct the target steered angle based on the correction value,
Speed limiter for a lift, consisting of a cable pulley, which is drivable by means of a limiter cable, and a cam wheel, which is connected with the cable pulley, and of a ratchet wheel with ratchet wheel teeth (14.1), the ratchet wheel being arranged at the cam wheel, and of a pivot lever with a first arm (16.1) and a second arm (16.3), wherein a pivot roller (16.2) rolling on the cam wheel is provided at the first arm (16.1) and a dog (16.7) entering into the path of the ratchet wheel teeth (14.1) is provided at the second arm (16.3), characterised in that a force limiter wheel (16.4) with a plurality of dogs (16.7) is provided at the second arm (16.3) of the pivot lever, wherein each dog (16.7) enters the path of the ratchet wheel teeth (14.1).
A personal care appliance comprising: an electric motor having a drive shaft, the electric motor configured to, in response to a voltage signal, oscillate the drive shaft in an oscillatory motion having an oscillation amplitude; and a control circuit comprising, in operable cooperation, a user interface, a processor, a pulse width modulation signal generator, and a power source, the control circuit operably coupled to the electric motor and configured to supply the voltage signal to the electric motor, the voltage signal having a frequency and a duty cycle, the control circuit configured to vary the frequency and the duty cycle of the voltage signal in response to an oscillation adjustment input received from the user interface so that the oscillation amplitude of the drive shaft is varied along a substantially linear rate of change profile relative to the frequency. an electric motor having a drive shaft, the electric motor configured to, in response to a voltage signal, oscillate the drive shaft in an oscillatory motion having an oscillation amplitude; and a control circuit comprising, in operable cooperation, a user interface, a processor, a pulse width modulation signal generator, and a power source, the control circuit operably coupled to the electric motor and configured to supply the voltage signal to the electric motor, the voltage signal having a frequency and a duty cycle, the control circuit configured to vary the frequency and the duty cycle of the voltage signal in response to an oscillation adjustment input received from the user interface so that the oscillation amplitude of the drive shaft is varied along a substantially linear rate of change profile relative to the frequency.
A steering control unit comprising; a control circuit that controls driving of a motor on the basis of an operating state quantity that changes in response to a steering operation that a driver performs to turn or return a steering wheel of a steering mechanism so as to steer a steered wheel of a vehicle, the motor being a source of an assist force to be supplied to the steering mechanism, wherein the control circuit calculates, on the basis of the operating state quantity, a basic assist component that is a basic component of the assist force that the motor needs to produce, the control circuit calculates, as a compensation component, a damping compensation component on the basis of a steering angle of the steering wheel that changes in response to the steering operation performed by the driver, or on the basis of a rotational angular velocity that is a time rate of change of a rotation angle convertible to the steering angle, the damping compensation component being used to compensate the basic assist component to suppress a sudden change in the steering angle, the control circuit calculates, as a compensation component and independently of the damping compensation component, a return damping compensation component on the basis of the rotational angular velocity, the return damping compensation component being used to compensate the basic assist component to suppress influence of the damping compensation component, characterized in that the control circuit compensates the basic assist component by using both the damping compensation component and the return damping compensation component, in a situation where the steering wheel comes back to a neutral position of the steering wheel without the steering operation that the driver performs to return the steering wheel.
A plasma torch comprising at least two cylindrical, graphite electrodes (107, 108; 302, 303) nested inside one another and coaxially aligned, wherein at least one of the electrodes has a tip, wherein at least one of the at least two cylindrical, graphite electodes (107, 108; 302, 303) has a barrel stave design, and wherein the plasma torch additionally contains a magnetic field generating component capable of providing a magnetic field at the tip of the electrode with an axial component of between about 10 and about 100 mT
Module for a rooms heating electric radiator, consisting of a monolithic element extending along an axis which is, in use, substantially vertical and comprising a front and a rear end plates (22, 24) and one heat conducting plate connected to the end plates (22, 24) and provided with a through window, elongated along the axis and delimited by a closed ring-shaped edge and intended to house an electrically-powered heating element; the module having a substantially H-shaped cross-section, with the pair of substantially parallel radiating end plates (22, 24), respectively located at the front and rear, joined by the central heat conducting plate, substantially perpendicular to the end plates (22, 24), and being also provided with a plurality of flanges, which project from opposite faces of the heat conducting plate; the module being characterized by having thermal insulation openings and/or gaps, formed so as to pass through the heat conducting plate and arranged between the edge of the window and the end plates (22, 24) to reduce heat conduction through the heat conducting plate.
A device for forming a temperature gradient, comprising at least a gas-tight working chamber with a first boundary surface, which is connected to a first electrode, and the second boundary surface, which is connected to a second electrode, wherein an electrical field between the first boundary surface and the second boundary surface can be generated in the working chamber when an electrical voltage is applied between first electrode and second electrode and wherein the distance between the first boundary surface and the second boundary surface is less than 5000 nm, characterised in that the working chamber is constituted such that an electrical field is created in the working chamber when an electrical voltage is applied between the electrodes (2, 3) which is essentially homogeneous over more than 70% of the working chamber, wherein the first boundary surface comprises at least one field elevation device constituted as a peak, so that, when electrical voltage is applied at the electrodes (2, 3), a field strength of the electrical field in a region of the field elevation device is higher at least by the factor 10 than an average field strength of the electrical field in the working chamber.
A method in a wireless communication device, comprising: receiving a broadcasted message specifying a type and software version of a radio access node and a list of device and application specific functions supported by the radio access node; transmitting a control message indicating a request for initial device and application-specific configuration parameters for a connection with the radio access node; receiving acknowledgement of the control message from the radio access node responsive to the control message; and applying the initial device and application-specific configuration parameters for the connection in response to receiving the acknowledgement. receiving a broadcasted message specifying a type and software version of a radio access node and a list of device and application specific functions supported by the radio access node; transmitting a control message indicating a request for initial device and application-specific configuration parameters for a connection with the radio access node; receiving acknowledgement of the control message from the radio access node responsive to the control message; and applying the initial device and application-specific configuration parameters for the connection in response to receiving the acknowledgement.
Method for producing helical springs by spring winding by means of a numerically controlled spring winding machine, wherein a wire, under the control of a NC control program, is fed to a shaping device of the spring winding machine by a feed device, is shaped using tools of the shaping device to form a helical spring, and subsequently a finished helical spring is separated from the fed wire by means of a cutting device, characterized in that prior to the separation at a defined separating position along the wire at least on two diametrically opposed sections of the wire circumference a linear type weakening in the region of the surface of the wire is generated and the finished helical spring is separated from the fed wire at the separating position.
An image processing method for color fog correction comprising: preparing a histogram using a luminance component of an original image; detecting luminance values of highlight and shadow points for said original image from said histogram, characterized by; forming the histogram by using a luminance of an image obtained by reducing the number of pixels from the original image taken with a digital camera; determining colors of the detected highlight and shadow points from plural pixels of said luminance values; obtaining, by using the luminance and the colors of the highlight and shadow points in a luminance and color space, a rotation matrix for rotating the highlight and shadow points toward an axis which indicates luminance in the luminance and color space; and executing, by using the obtained rotation matrix, a color correction on the original image by converting a value of each pixel of the original image. preparing a histogram using a luminance component of an original image; detecting luminance values of highlight and shadow points for said original image from said histogram, characterized by; forming the histogram by using a luminance of an image obtained by reducing the number of pixels from the original image taken with a digital camera; determining colors of the detected highlight and shadow points from plural pixels of said luminance values; obtaining, by using the luminance and the colors of the highlight and shadow points in a luminance and color space, a rotation matrix for rotating the highlight and shadow points toward an axis which indicates luminance in the luminance and color space; and executing, by using the obtained rotation matrix, a color correction on the original image by converting a value of each pixel of the original image.