mhurhangee/ep-ind-claims huggingface dataset:
A method in a terminal device (16, 200) for a wireless communication network, the terminal device being configurable with a plurality of transmission time intervals, the method comprising: determining the presence of data to transmit, the data being associated with a first logical channel; determining a maximum transmission time interval value associated with the first logical channel; wherein the maximum transmission time interval value is configured via signalling between the radio access network and the wireless terminal, and responsive to a determination that the maximum transmission time interval associated with the logical channel is less than a first transmission time interval, transmitting a scheduling request message to the wireless communication network, the scheduling request message being configured according to a second transmission time interval of the plurality of transmission time intervals, wherein the second transmission time interval is shorter than the first transmission time interval (50, 52, 54). determining the presence of data to transmit, the data being associated with a first logical channel; determining a maximum transmission time interval value associated with the first logical channel; wherein the maximum transmission time interval value is configured via signalling between the radio access network and the wireless terminal, and responsive to a determination that the maximum transmission time interval associated with the logical channel is less than a first transmission time interval, transmitting a scheduling request message to the wireless communication network, the scheduling request message being configured according to a second transmission time interval of the plurality of transmission time intervals, wherein the second transmission time interval is shorter than the first transmission time interval (50, 52, 54).
Operating device for a motor vehicle, having: - an operating element, which is mounted movably relative to a housing of the operating device and has a contact surface for a user, - a sensor device for generating a sensor signal as a function of a user contact of the contact surface and/or approach to the contact surface, - an actuator for generating a feedback movement of the operating element as a function of an excitation signal, - a controller, which is configured as a function of the sensor signal to produce a control signal for at least one device of the motor vehicle and with the control signal generates the excitation signal for the actuator, wherein the operating element in the inactivated state is arranged in a position of rest, in which at least one centring element blocks the feedback movement, and with the user activation of the contact surface with operational force performs an evasive movement which is oblique or perpendicular to the direction of the feedback movement, by means of which evasive movement the operating element changes from the position of rest into a free position, in which it is released by the at least one centring element for the feedback movement. - an operating element, which is mounted movably relative to a housing of the operating device and has a contact surface for a user, - a sensor device for generating a sensor signal as a function of a user contact of the contact surface and/or approach to the contact surface, - an actuator for generating a feedback movement of the operating element as a function of an excitation signal, - a controller, which is configured as a function of the sensor signal to produce a control signal for at least one device of the motor vehicle and with the control signal generates the excitation signal for the actuator,
A multistage aqueous emulsion polymer comprising: from 88% to 98% by dry weight, based on total dry weight of the multistage aqueous emulsion polymer, of a first polymer core, from 2% to 12% by dry weight, based on total dry weight of the multistage aqueous emulsion polymer, of a second polymer shell, wherein the first polymer core and the second polymer shell each independently comprises, as polymerized units, one or more ethylenically unsaturated nonionic monomers, wherein the second polymer shell further comprises, as polymerized units, from 20% to 60% by dry weight, based on total dry weight of the second polymer shell, of an acid monomer, wherein said acid monomer is, as polymerized units, from 1.1% to 4.2% by dry weight, based on total dry weight of the multistage aqueous emulsion polymer. from 88% to 98% by dry weight, based on total dry weight of the multistage aqueous emulsion polymer, of a first polymer core, from 2% to 12% by dry weight, based on total dry weight of the multistage aqueous emulsion polymer, of a second polymer shell, wherein the first polymer core and the second polymer shell each independently comprises, as polymerized units, one or more ethylenically unsaturated nonionic monomers, wherein the second polymer shell further comprises, as polymerized units, from 20% to 60% by dry weight, based on total dry weight of the second polymer shell, of an acid monomer, wherein said acid monomer is, as polymerized units, from 1.1% to 4.2% by dry weight, based on total dry weight of the multistage aqueous emulsion polymer.
A method for processing files to be stored on a virtual drive, wherein the method comprises: storing a plurality of sets of parameters for processing files to be stored on the virtual drive and identifiers corresponding to the sets of parameters, wherein the files are processed by an encryption module, a conversion module and a signature module; whereby each set of parameters defines module-specific parameters for controlling at least two of the modules; monitoring file operations on the virtual drive; if a file operation to store a file to the virtual drive is detected, the file operation is suspended for processing the file by the modules controlled by the parameters; the processing comprising: receiving the file to be stored on the virtual drive; controlling at least two of the modules by the set of parameters that has an identifier that indicates the filename of the received file, wherein the received file is signed by the signature module and encrypted by the encryption module before the file is stored to the virtual drive. storing a plurality of sets of parameters for processing files to be stored on the virtual drive and identifiers corresponding to the sets of parameters, wherein the files are processed by an encryption module, a conversion module and a signature module; whereby each set of parameters defines module-specific parameters for controlling at least two of the modules; monitoring file operations on the virtual drive; if a file operation to store a file to the virtual drive is detected, the file operation is suspended for processing the file by the modules controlled by the parameters; the processing comprising: receiving the file to be stored on the virtual drive; controlling at least two of the modules by the set of parameters that has an identifier that indicates the filename of the received file, wherein the received file is signed by the signature module and encrypted by the encryption module before the file is stored to the virtual drive. receiving the file to be stored on the virtual drive; controlling at least two of the modules by the set of parameters that has an identifier that indicates the filename of the received file, wherein the received file is signed by the signature module and encrypted by the encryption module before the file is stored to the virtual drive.
A lip for an excavating bucket comprising at least one cast part having a length to extend between opposite sidewalls of the bucket, the lip including a front beam and a rear beam extending along the length of the lip to provide resistance to heavy loading during use, each of the front and rear beams (32, 34) being generally continuous and free of sudden changes along their lengths, a top panel coupling the front and rear beams (32, 34) together and defining a top surface over which earthen material passes into the bucket, and a plurality of ribs extending between the front and rear beams (32, 34), the front and rear beams (32, 34) being thicker than the top panel to define recesses along the ribs, underneath the top panel and between the front and rear beams (32, 34) and each of the recesses opening in a direction away from the top panel.
Pigment of the formula I nBi 2 O 3 * mBiOX * oBi x X y O z * pBi a Si b O c I where X denotes halogen x denotes 2-30, y denotes 1-15, where, in the case where y=1, z is then > 1, z denotes 1-35 a denotes 0-15 b denotes 1-5 c denotes 1-25, n denotes 0-5 m denotes 0-5 o denotes 1-5 p denotes 1-5. X denotes halogen x denotes 2-30, y denotes 1-15, where, in the case where y=1, z is then > 1, z denotes 1-35 a denotes 0-15 b denotes 1-5 c denotes 1-25, n denotes 0-5 m denotes 0-5 o denotes 1-5 p denotes 1-5.
Method for provisioning an applet with credentials of a terminal application present in a terminal and provided by an application server, said applet being comprised in a security element of said terminal, said method consisting in: - Sending a request to provision said applet with credentials from said terminal application to said applet; - Sending a SMS message containing an identifier of said applet from said applet to an OTA platform; - Adding the MSISDN of said security element by a SMSC located in front of said OTA platform in the header of said SMS; - Requesting said credentials from said OTA platform to said application server; - Sending from said application server to said OTA platform said credentials to be associated with said MSISDN; - Sending from said OTA platform to said applet said credentials associated with said MSISDN; - Sending from said applet to said terminal application a message informing said terminal application that it has been provisioned with credentials of said terminal application. - Sending a request to provision said applet with credentials from said terminal application to said applet; - Sending a SMS message containing an identifier of said applet from said applet to an OTA platform; - Adding the MSISDN of said security element by a SMSC located in front of said OTA platform in the header of said SMS; - Requesting said credentials from said OTA platform to said application server; - Sending from said application server to said OTA platform said credentials to be associated with said MSISDN; - Sending from said OTA platform to said applet said credentials associated with said MSISDN; - Sending from said applet to said terminal application a message informing said terminal application that it has been provisioned with credentials of said terminal application.
A biological sound sensor to be used in contact with a skin of a living body comprising: a casing that has an opening in a face on the side facing the skin of the living body; a double-sided adhesive membrane (10, 30, 40) both surfaces of which have adhesion, one surface of which closes the opening by adhering to the face of the casing, and the other surface of which adheres to the skin when collecting a biological sound produced in the living body; and a microphone that is arranged in the casing and picks up the biological sound, characterized in that the double-sided adhesive membrane (10, 30, 40) includes a one-material portion that is made from a single adhesive material across the entire width in the thickness direction. a casing that has an opening in a face on the side facing the skin of the living body; a double-sided adhesive membrane (10, 30, 40) both surfaces of which have adhesion, one surface of which closes the opening by adhering to the face of the casing, and the other surface of which adheres to the skin when collecting a biological sound produced in the living body; and a microphone that is arranged in the casing and picks up the biological sound, the double-sided adhesive membrane (10, 30, 40) includes a one-material portion that is made from a single adhesive material across the entire width in the thickness direction.
An evaporator comprising a sheet and a microchannel tube used in a cooling cycle, having arranged channels parallel to each other wherein a refrigerant flows, characterized by a microchannel tube fixed on the sheet by bending around an axis that is vertical to the sheet and on which the channels are in line, such that only one of its channels will be in contact with the sheet.
A photosensitive printing composition comprising: (i) a photocatalyst which exhibits a photocatalytic effect when exposed to UV and/or visible radiation and which is in the form of nanoparticles; (ii) a colouring agent that exhibits a colour change in response to the photocatalytic effect; and (iii) a film forming agent which is a polymer selected from the group consisting of xanthan gum, poly (N-isopropylacrylamide), polyethylene glycol, polyvinyl alcohol, polyvinylpyrrolidone, polyacrylic acid, polymethacrylic acid, poly(hydroxyethyl methacrylate) (PHEMA), polyacrylamide, polyethylene glycol, polypropylene glycol, or any combination thereof; wherein the composition has a viscosity, as measured by an Anton-PAAR MCR 302 rheometer, in the range of 0.001 to 0.01 Pa·s at 25° C that is suitable for inkjet printing. (i) a photocatalyst which exhibits a photocatalytic effect when exposed to UV and/or visible radiation and which is in the form of nanoparticles; (ii) a colouring agent that exhibits a colour change in response to the photocatalytic effect; and (iii) a film forming agent which is a polymer selected from the group consisting of xanthan gum, poly (N-isopropylacrylamide), polyethylene glycol, polyvinyl alcohol, polyvinylpyrrolidone, polyacrylic acid, polymethacrylic acid, poly(hydroxyethyl methacrylate) (PHEMA), polyacrylamide, polyethylene glycol, polypropylene glycol, or any combination thereof;
An optical system (100, 200, 400, 500) for performing in-orbit instrument spectral response function measurements, the optical system comprising: an optical detection unit; and an optical frequency comb generator for projecting a frequency comb comprising a plurality of discrete, equally spaced elements onto said optical detection unit, wherein the discrete, equally spaced elements are spaced equally in frequency space, characterized in that the optical system further comprises a tuning unit configured to vary a frequency spectrum of said frequency comb, said tuning unit is configured to vary a frequency of a said element continuously over at least a free spectral range. an optical detection unit; and an optical frequency comb generator for projecting a frequency comb comprising a plurality of discrete, equally spaced elements onto said optical detection unit, wherein the discrete, equally spaced elements are spaced equally in frequency space, characterized in that the optical system further comprises a tuning unit configured to vary a frequency spectrum of said frequency comb, said tuning unit is configured to vary a frequency of a said element continuously over at least a free spectral range.
Mechanical component for a vehicle, wherein the mechanical component has a measuring region and a deformation element which is mechanically coupled to the measuring region, wherein a first contact-forming section and a second contact-forming section of the deformation element are connected to a surface of the measuring region and a connecting section, extending between the contact-forming sections, of the deformation element is arranged spaced apart from the surface, wherein when a stress load acts on the mechanical component during operation of the mechanical component the measuring region experiences deformation and the deformation element is deformed, in order to experience, in response to the deformation of the measuring region deformation which exceeds the deformation of the measuring region and can be sensed by a magnetic field sensor (120, 122), characterized in that the deformation element comprises an electrically conductive, magnetic or magnetizable material, and the mechanical component comprises at least one field-generating means for generating an alternating electromagnetic field which is influenced by the shape of the deformation element, and at least one detection means for detecting the alternating electromagnetic field, wherein the field-generating means and the detection means are both spaced apart from the deformation element and are not in mechanical contact with the deformation element, wherein the detection means is designed to output an electrical detection signal which represents a change in the alternating electromagnetic field which maps the deformation of the deformation element, wherein the measuring region comprises a groove, and the deformation element is clamped into the groove.
A composition comprising an active di-chain BoNT/A protein obtainable by a method comprising: (a) providing an isolated soluble single-chain BoNT/A protein; (b) contacting said BoNT/A protein with endoproteinase Lys-C (Lys-C) in solution; and (c) separating the soluble BoNT/A protein and Lys-C with a hydrophobic surface, wherein the soluble BoNT/A proteins binds with preference to the hydrophobic surface; and wherein said composition comprises (i) less than 2% single-chain BoNT/A; and (ii) Lys-C, wherein the Lys-C is present at a concentration of less than 400 pg Lys-C per 100 ng BoNT/A protein. (a) providing an isolated soluble single-chain BoNT/A protein; (b) contacting said BoNT/A protein with endoproteinase Lys-C (Lys-C) in solution; and (c) separating the soluble BoNT/A protein and Lys-C with a hydrophobic surface, wherein the soluble BoNT/A proteins binds with preference to the hydrophobic surface;
A sensing device comprising: a microwave sensor configured to emit microwave radiation and to receive microwave radiation reflected by a moving body in the field of detection of the microwave sensor; a wireless data transmitter configured to transmit data to a remote receiver, a main power supply for providing electrical power at a first voltage to the sensing device, characterised in that the sensing device further comprises: a first voltage regulator provided between the main power supply and the microwave sensor for providing a sensor power supply to the microwave sensor at a voltage below the voltage of the main power supply, wherein the wireless data transmitter is powered from the main power supply via a transmitter power supply connection arranged in parallel with the first voltage regulator. a microwave sensor configured to emit microwave radiation and to receive microwave radiation reflected by a moving body in the field of detection of the microwave sensor; a wireless data transmitter configured to transmit data to a remote receiver, a main power supply for providing electrical power at a first voltage to the sensing device, a first voltage regulator provided between the main power supply and the microwave sensor for providing a sensor power supply to the microwave sensor at a voltage below the voltage of the main power supply, wherein the wireless data transmitter is powered from the main power supply via a transmitter power supply connection arranged in parallel with the first voltage regulator.
An ethylene-based polymer composition formed by high pressure (greater or equal to 100 MPa) free radical polymerization comprising: ethylene monomer and a mixture of hydrocarbon-based molecules, each hydrocarbon-based molecule comprising three or more terminal alkene groups, wherein the ethylene-based polymer composition has a melt force index as defined by the following Equation MFI = MI ∗ MF wherein melt index, measured in accordance with ASTM D 1238, Condition 190°C/2.16 kg is from 0.1 to 1.0 g/10min, melt force, measured as described in the description is from 170 to 340 mN; and the MFI is from 40 to 120 g*mN/10min. ethylene monomer and a mixture of hydrocarbon-based molecules, each hydrocarbon-based molecule comprising three or more terminal alkene groups, wherein the ethylene-based polymer composition has a melt force index as defined by the following Equation MFI = MI ∗ MF wherein melt index, measured in accordance with ASTM D 1238, Condition 190°C/2.16 kg is from 0.1 to 1.0 g/10min, melt force, measured as described in the description is from 170 to 340 mN; and the MFI is from 40 to 120 g*mN/10min.
An assembly, comprising: - a component (3, 5, 7, 110), and - a non-magnetic temperature-dependent, first luminescence dye, which in a first state has a predefined first chromaticity coordinate (F1a) and in a second state has a predefined second chromaticity coordinate (F1b) different from the first chromaticity coordinate, and which is arranged on or integrated into the component (3, 5, 7, 110) in such a way that the non-magnetic temperature-dependent, first luminescence dye develops an optically detectable color change from the first chromaticity coordinate (F1a) toward the second chromaticity coordinate (F1b) as a function of a temperature change acting on it. - a component (3, 5, 7, 110), and - a non-magnetic temperature-dependent, first luminescence dye, which in a first state has a predefined first chromaticity coordinate (F1a) and in a second state has a predefined second chromaticity coordinate (F1b) different from the first chromaticity coordinate, and which is arranged on or integrated into the component (3, 5, 7, 110) in such a way that the non-magnetic temperature-dependent, first luminescence dye develops an optically detectable color change from the first chromaticity coordinate (F1a) toward the second chromaticity coordinate (F1b) as a function of a temperature change acting on it.
Aircraft fuselage having a curved shape with a vertical symmetry plane and a central longitudinal axis and comprising a pressurized cabin and an unpressurized rear section separated by a rear pressure bulkhead; the pressurized cabin comprising a floor dividing the space of the pressurized cabin into upper and lower compartments (21, 23); the rear pressure bulkhead comprises flat portions forming one or more kinks between them, characterized in that one of said kinks being contiguous to the rear border of the floor, and wherein the rear pressure bulkhead further comprises: - upper and lower flat portions (31, 35) forming a kink contiguous to the rear border of the floor, the upper flat portion being perpendicular to the central longitudinal axis, the lower flat portion forming an angle α with the floor comprised between 30-60o, or - upper, middle and lower flat portions (31, 33, 35) forming a first kink between the upper and middle flat portions (31, 33) and a second kink between the middle and lower flat portions (33, 35) contiguous to the rear border of the floor; the middle flat portion being coplanar with the floor, the upper flat portion being perpendicular to the central longitudinal axis, the lower flat portion forming an angle β with the floor comprised between 30-60o. - upper and lower flat portions (31, 35) forming a kink contiguous to the rear border of the floor, the upper flat portion being perpendicular to the central longitudinal axis, the lower flat portion forming an angle α with the floor comprised between 30-60o, or - upper, middle and lower flat portions (31, 33, 35) forming a first kink between the upper and middle flat portions (31, 33) and a second kink between the middle and lower flat portions (33, 35) contiguous to the rear border of the floor; the middle flat portion being coplanar with the floor, the upper flat portion being perpendicular to the central longitudinal axis, the lower flat portion forming an angle β with the floor comprised between 30-60o.