mhurhangee/ep-ind-claims huggingface dataset:
Heat-sensitive recording material in web form, having at least one first ply and a second ply at least partly concealing the first ply, where ∘ the first ply, at least facing the second ply, has an intensive coloration and ∘ the second ply comprises hollow-body pigments which can be melted to form a script by locally confined heat treatment, characterized in that the first ply is concealed virtually opaquely by the second ply and in that second ply, besides the hollow-body pigments, also the comprises ▪ one or more fatty acid amides and/or hydroxymethylated fatty acid amides and ▪ one or more heat-sensitive sensitizers where the heat-sensitive sensitizers are selected from the list encompassing: benzyl p-benzyloxybenzoate, 2-(2H-benzotriazol-2-yl)-p-cresol, p-benzylbiphenyl, 1,2-di(phenoxy)ethane, 1,2-di(m-methylphenoxy)ethane, 2-(2H-benzotriazol-2-yl)-p-cresol, dibenzyl oxalate, benzyl naphthyl ether, dimethyl terephthalate and diphenyl sulfone. ∘ the first ply, at least facing the second ply, has an intensive coloration and ∘ the second ply comprises hollow-body pigments which can be melted to form a script by locally confined heat treatment, ▪ one or more fatty acid amides and/or hydroxymethylated fatty acid amides and ▪ one or more heat-sensitive sensitizers where the heat-sensitive sensitizers are selected from the list encompassing: benzyl p-benzyloxybenzoate, 2-(2H-benzotriazol-2-yl)-p-cresol, p-benzylbiphenyl, 1,2-di(phenoxy)ethane, 1,2-di(m-methylphenoxy)ethane, 2-(2H-benzotriazol-2-yl)-p-cresol, dibenzyl oxalate, benzyl naphthyl ether, dimethyl terephthalate and diphenyl sulfone.
An implantable device, comprising: a sheet graft material having a top side and a bottom side, wherein the sheet graft material comprises an extracellular matrix sheet material; a plurality of drug depots attached to the sheet graft material; and wherein the sheet graft material has a porous matrix formed by a network of fibers, the porous matrix having pores formed between the fibers of the network, and the drug depots each comprise solid deposits including a polymeric carrier and a drug, the solid deposits each including a first portion infiltrating pores of the porous matrix and a second portion external of the porous matrix. a sheet graft material having a top side and a bottom side, wherein the sheet graft material comprises an extracellular matrix sheet material; a plurality of drug depots attached to the sheet graft material; and wherein the sheet graft material has a porous matrix formed by a network of fibers, the porous matrix having pores formed between the fibers of the network, and the drug depots each comprise solid deposits including a polymeric carrier and a drug, the solid deposits each including a first portion infiltrating pores of the porous matrix and a second portion external of the porous matrix.
An internal combustion engine configured to detect a stoichiometric air-fuel ratio by an oxygen sensor and to perform a perturbation of an air-fuel ratio alternately to a rich side or a lean side using a solenoid valve, comprising: an adjusting valve disposed in parallel with the solenoid valve; and a control unit, wherein the solenoid valve and the adjusting valve adjust an opening area of a passage for a fuel gas, and wherein the control unit stores a control map that indicates a correlation between an opening degree of the solenoid valve and an opening degree of the adjusting valve when the perturbation is performed in an intermediate region, where a change in an amount of flow relative to a change in the opening degree is constant, of an opening/closing region of the solenoid valve. an adjusting valve disposed in parallel with the solenoid valve; and a control unit,
A computer implemented method for calculation of respiratory training intensity in a dataset comprising pressure data acquired in connection with at least one of an inhalation and an exhalation airway of a respiratory training or testing device, the dataset representing a subject breathing through said airway having a predefined respiratory resistance, the method comprising the steps of: - calculating the respiratory muscle power vs. time of at least one breath of the subject, and/or - calculating the respiratory muscle work of at least one breath of the subject, the method further comprising the steps of: - calculating the peak respiratory muscle power of at least one breath of the subject, and/or - calculating the average peak respiratory muscle power of a plurality of breaths of the subject, wherein the calculation of respiratory training intensity is a real-time process carried out using a stream of data continuously received. - calculating the respiratory muscle power vs. time of at least one breath of the subject, and/or - calculating the respiratory muscle work of at least one breath of the subject, - calculating the peak respiratory muscle power of at least one breath of the subject, and/or - calculating the average peak respiratory muscle power of a plurality of breaths of the subject,
A method for calibrating a power tool having a rotational rate sensor configured to detect rotational motion of the tool about an axis, comprising: mounting the power tool to a test fixture; rotating the power tool at a known angular velocity about the axis using the test fixture; comparing an angular velocity as measured by the rotational rate sensor with the known angular velocity; and determining a difference value between the measured angular velocity and the known angular velocity. mounting the power tool to a test fixture; rotating the power tool at a known angular velocity about the axis using the test fixture; comparing an angular velocity as measured by the rotational rate sensor with the known angular velocity; and determining a difference value between the measured angular velocity and the known angular velocity.
An X-ray imaging unit for X-ray imaging comprising a processor part, a gantry part, an X-ray source part for emitting X-rays, and an X-ray imaging detector part for receiving the X-rays from the source part, wherein the gantry part comprises the source and detector parts, and wherein the processor part is configured to control the source and detector parts in order to obtain (205, 216) an image data, and to determine at least one anatomical reference structure (235, 236) of a patient from the image data, characterized in that the processor part is configured to determine a position and a co-ordinate system of a head of the patient on a grounds of the at least one anatomical reference structure, to determine a rotational displacement (a) between co-ordinates systems (130, 231) of the unit and the patient, and to calculate, based on the determined rotational displacement, at least one scan movement of the source and detector parts. a processor part, a gantry part, an X-ray source part for emitting X-rays, and an X-ray imaging detector part for receiving the X-rays from the source part, wherein the gantry part comprises the source and detector parts, and wherein the processor part is configured to control the source and detector parts in order to obtain (205, 216) an image data, and to determine at least one anatomical reference structure (235, 236) of a patient from the image data, characterized in that the processor part is configured to determine a position and a co-ordinate system of a head of the patient on a grounds of the at least one anatomical reference structure, to determine a rotational displacement (a) between co-ordinates systems (130, 231) of the unit and the patient, and to calculate, based on the determined rotational displacement, at least one scan movement of the source and detector parts.
A display device comprising: a display panel; and a corrugated panel configured to support the display panel, wherein the corrugated panel is disposed at a rear of the display panel and comprises a corrugated core disposed between a front skin and a rear skin; a module cover configured to cover the display panel and the corrugated panel; and a first adhesive member; characterized in that the module cover comprises: a first body configured to cover a lateral side between a front surface of the display panel and a rear surface of the rear skin; and a second body which extends from the first body and is disposed between the front skin and the display panel, and wherein the first adhesive member is attached to the front skin and the second body. a display panel; and a corrugated panel configured to support the display panel, wherein the corrugated panel is disposed at a rear of the display panel and comprises a corrugated core disposed between a front skin and a rear skin; a module cover configured to cover the display panel and the corrugated panel; and a first adhesive member; characterized in that the module cover comprises: a first body configured to cover a lateral side between a front surface of the display panel and a rear surface of the rear skin; and a second body which extends from the first body and is disposed between the front skin and the display panel, and a first body configured to cover a lateral side between a front surface of the display panel and a rear surface of the rear skin; and a second body which extends from the first body and is disposed between the front skin and the display panel, and wherein the first adhesive member is attached to the front skin and the second body.
A method (600, 700) for processing a plurality of signals, the method (600, 700) comprising: receiving one or more observations characterizing a wireless channel; performing a channel estimation to determine a probabilistic channel model for the wireless channel, wherein the channel estimation comprises numerically updating one or more multipath gain estimates and one or more multipath delay estimates based on the one or more received observations and a probability distribution associated with the probabilistic channel model; and processing the plurality of signals using the probabilistic channel model, characterized in that the one or more multipath delay estimates are numerically updated based on calculating a mixture of von Mises probability distributions based on a continuous space to approximate a product of a plurality of wrapped von Mises probability distributions, and calculating an expected value based on the mixture of von Mises probability distributions to estimate a multipath delay estimate of the one or more multipath delay estimates. receiving one or more observations characterizing a wireless channel; performing a channel estimation to determine a probabilistic channel model for the wireless channel, wherein the channel estimation comprises numerically updating one or more multipath gain estimates and one or more multipath delay estimates based on the one or more received observations and a probability distribution associated with the probabilistic channel model; and processing the plurality of signals using the probabilistic channel model, characterized in that the one or more multipath delay estimates are numerically updated based on calculating a mixture of von Mises probability distributions based on a continuous space to approximate a product of a plurality of wrapped von Mises probability distributions, and calculating an expected value based on the mixture of von Mises probability distributions to estimate a multipath delay estimate of the one or more multipath delay estimates.
A case for an electronic smoking device, the case comprising: a primary receiving portion, adapted to receive an electronic smoking device; a secondary receiving portion, adapted to receive a liquid cartridge, adapted to contain a liquid; a liquid channel system for the transport of liquid within the case, the liquid channel system comprising - a liquid inlet, adapted to be connected to a liquid cartridge received by the secondary receiving portion, - a liquid outlet, and - a liquid channel component, interconnecting the liquid inlet and the liquid outlet; a pump system with an actuation element, adapted to provide liquid from a liquid cartridge received by the secondary receiving portion to the liquid outlet via the liquid channel system upon an actuation of the actuation element characterized in that the actuation element comprises a rotatable pump wheel being accessible from an outside of the case, wherein the pump system is actuatable via a rotation of the rotatable pump wheel. a primary receiving portion, adapted to receive an electronic smoking device; a secondary receiving portion, adapted to receive a liquid cartridge, adapted to contain a liquid; a liquid channel system for the transport of liquid within the case, the liquid channel system comprising - a liquid inlet, adapted to be connected to a liquid cartridge received by the secondary receiving portion, - a liquid outlet, and - a liquid channel component, interconnecting the liquid inlet and the liquid outlet; - a liquid inlet, adapted to be connected to a liquid cartridge received by the secondary receiving portion, - a liquid outlet, and - a liquid channel component, interconnecting the liquid inlet and the liquid outlet; a pump system with an actuation element, adapted to provide liquid from a liquid cartridge received by the secondary receiving portion to the liquid outlet via the liquid channel system upon an actuation of the actuation element characterized in that the actuation element comprises a rotatable pump wheel being accessible from an outside of the case, wherein the pump system is actuatable via a rotation of the rotatable pump wheel.
A method of molding a part comprising positioning an extrusion screw (104, 404) within a barrel (106, 402) and rotating the extrusion screw (104, 404) within the barrel (106, 402) to extrude a molten material through a nozzle opening (114, 302) of a nozzle (108, 300) into a mold cavity; and after extruding the molten material through the nozzle opening (114, 302), inserting a disk-shaped screw tip portion of a screw tip (102, 200) of the extrusion screw (104, 404) that is configured or shaped to match a geometry of the nozzle (108, 300) near the nozzle opening (114, 302) to extend axially into the nozzle (108, 300) and fit inside the nozzle (108, 300) to seal the nozzle (108, 300) and close the nozzle opening (114, 302), thereby restricting the molten material from flowing through the nozzle opening (114, 302) and displacing the molten material from the nozzle opening (114, 302). positioning an extrusion screw (104, 404) within a barrel (106, 402) and rotating the extrusion screw (104, 404) within the barrel (106, 402) to extrude a molten material through a nozzle opening (114, 302) of a nozzle (108, 300) into a mold cavity; and after extruding the molten material through the nozzle opening (114, 302), inserting a disk-shaped screw tip portion of a screw tip (102, 200) of the extrusion screw (104, 404) that is configured or shaped to match a geometry of the nozzle (108, 300) near the nozzle opening (114, 302) to extend axially into the nozzle (108, 300) and fit inside the nozzle (108, 300) to seal the nozzle (108, 300) and close the nozzle opening (114, 302), thereby restricting the molten material from flowing through the nozzle opening (114, 302) and displacing the molten material from the nozzle opening (114, 302).
A computer-implemented method comprising: storing a plurality of acceleration profiles, each acceleration profile corresponding to a sequence of acceleration forces a mobile device would be subjected to when carried with a user during one of a plurality of activities corresponding to the plurality of acceleration profiles, each acceleration profile being related to a time-based or location-based filter setting; receiving (209, 263) accelerometer data from an accelerometer in the mobile device and determining a time or location of the accelerometer data; correlating (212, 266) the accelerometer data and the determined time or location with one accelerometer profile in the plurality of accelerometer profiles, the one accelerometer profile having a related time-based or location-based filter setting; and activating (215, 269) a user application of the mobile device that is associated with the correlated one accelerometer profile. storing a plurality of acceleration profiles, each acceleration profile corresponding to a sequence of acceleration forces a mobile device would be subjected to when carried with a user during one of a plurality of activities corresponding to the plurality of acceleration profiles, each acceleration profile being related to a time-based or location-based filter setting; receiving (209, 263) accelerometer data from an accelerometer in the mobile device and determining a time or location of the accelerometer data; correlating (212, 266) the accelerometer data and the determined time or location with one accelerometer profile in the plurality of accelerometer profiles, the one accelerometer profile having a related time-based or location-based filter setting; and activating (215, 269) a user application of the mobile device that is associated with the correlated one accelerometer profile.
Aqueous composition for hair characterised in that it comprises at least one alkalizing agent selected from compounds according to general structure R 1 R 2 R 3 N wherein R 1, R 2 and R 3 are the same or different H, straight or branched C 1 to C 6 alkyl, straight or branched C 1 to C 6 monohydroxy alkyl, straight or branched C 2 to C 6 polyhydroxyalkyl, carbonate salts and bicarbonate salts at a total concentration of 1 to 30% by weight calculated to total composition prior to mixing with any other composition, and an aqueous emulsion of divinyldimethicone/dimethicone copolymer with an internal phase viscosity of more than 1 x 10 8 mm 2 /s measured at 0.01 Hz and at about 25°C.
An optical module for removable connection via a connection path to a host module of an optical telecommunications apparatus, the optical module comprising: a module interface for receiving from the host over the connection path a plurality of calibration signals each at a plurality of frequencies; a Mach-Zehnder modulator, MZM, configured to use the calibration signals to modulate a laser light source and biased to a point at which average output power is proportional to the output modulated signal; an optical detector configured to measure an average magnitude of an output of the MZM when each of the calibration signals is used to modulate the laser light source; a module calibration unit configured to determine a magnitude response of the connection path based on the measured average magnitudes of the outputs and magnitudes of the respective calibration signals, and further configured to determine a pre-emphasis characteristic based on the magnitude response, the pre-emphasis characteristic for application to signals transmitted by the telecommunications apparatus in use. a module interface for receiving from the host over the connection path a plurality of calibration signals each at a plurality of frequencies; a Mach-Zehnder modulator, MZM, configured to use the calibration signals to modulate a laser light source and biased to a point at which average output power is proportional to the output modulated signal; an optical detector configured to measure an average magnitude of an output of the MZM when each of the calibration signals is used to modulate the laser light source; a module calibration unit configured to determine a magnitude response of the connection path based on the measured average magnitudes of the outputs and magnitudes of the respective calibration signals, and further configured to determine a pre-emphasis characteristic based on the magnitude response, the pre-emphasis characteristic for application to signals transmitted by the telecommunications apparatus in use.
A ventilation device, in particular a tracheal cannula for insertion into a tracheostoma, comprising a cannula element which comprises a neck element and a hollow body element arranged on the neck element, wherein the hollow body element has an inner wall which surrounds at least one inner lumen, wherein the inner wall is surrounded by an outer wall, wherein an intermediate lumen is defined between the inner wall and the outer wall, wherein in a first state the hollow body element is in a flexible state, wherein the hollow body element can be brought into a second dimensionally stable state by supplying a predetermined amount of stabilising fluid into the intermediate lumen, wherein at least one intermediate layer is provided between the inner wall and the outer wall.
A system for controlling intravascular data acquisition, comprising: a processor circuit configured to: generate, using first extravascular image data of a vessel, a roadmap of the vessel; identify a region of interest of the vessel on the roadmap of the vessel; receive second extravascular image data representative of an intravascular data acquisition device positioned within the vessel; determine, based on the second extravascular image data, whether the intravascular data acquisition device has entered the region of interest; and in response to determining that the intravascular data acquisition device has entered the region of interest, control the intravascular data acquisition device to obtain intravascular data of the region of interest; and output, to a display device in communication with the processor circuit, a first graphical representation of the intravascular data of the region of interest. generate, using first extravascular image data of a vessel, a roadmap of the vessel; identify a region of interest of the vessel on the roadmap of the vessel; receive second extravascular image data representative of an intravascular data acquisition device positioned within the vessel; determine, based on the second extravascular image data, whether the intravascular data acquisition device has entered the region of interest; and in response to determining that the intravascular data acquisition device has entered the region of interest, control the intravascular data acquisition device to obtain intravascular data of the region of interest; and output, to a display device in communication with the processor circuit, a first graphical representation of the intravascular data of the region of interest.
Method for preparing virosomes, comprising the steps of: (a) providing an enveloped virus, and optionally inactivating the virus; (b) solubilizing the viral envelopes in a first solubilizing agent; (c) pre-solubilizing exogenous components in a second solubilizing agent; (d) adding the pre-solubilized exogenous components to the solubilized viral envelopes; and (e) reconstituting virosomal membranes by removing the solubilizing agent, wherein the viral envelopes and the exogenous components are (pre-)solubilized at a temperature of between 2-8°C. (a) providing an enveloped virus, and optionally inactivating the virus; (b) solubilizing the viral envelopes in a first solubilizing agent; (c) pre-solubilizing exogenous components in a second solubilizing agent; (d) adding the pre-solubilized exogenous components to the solubilized viral envelopes; and (e) reconstituting virosomal membranes by removing the solubilizing agent,
Method for increasing the availability of a hybrid clutch in a hybrid drive train of a motor vehicle, in which the hybrid clutch is arranged between an internal combustion engine and an electric traction drive, wherein the method comprises: actuating the hybrid clutch via a hydrostatic actuator in order to activate the hybrid clutch which is closed in an unactivated state, and detecting a fault in the hydrostatic actuator, characterized in that in the case of a detected fault in the hydrostatic actuator a last state of the hydrostatic actuator which was detected by a control device is used to estimate a minimum transmissible clutch torque. actuating the hybrid clutch via a hydrostatic actuator in order to activate the hybrid clutch which is closed in an unactivated state, and detecting a fault in the hydrostatic actuator, characterized in that in the case of a detected fault in the hydrostatic actuator a last state of the hydrostatic actuator which was detected by a control device is used to estimate a minimum transmissible clutch torque.