mhurhangee/ep-ind-claims huggingface dataset:
A pulse oximetry monitor having an input for signals from a pulse oximetry sensor, an evaluation unit for evaluating the incoming signals, and an output unit, wherein the signals comprise an "on" signal and an "off" signal, wherein the "on" signal signals that the pulse oximetry sensor is applied to a patient, and the "off" signal signals that the pulse oximetry sensor has been removed from the patient, wherein the evaluation unit comprises a time measurement unit that measures the time from receiving an "on" signal to receiving an "off" signal, and wherein the output unit is a visual display, characterised in that the visual display displays a numerical value of how many hours have elapsed within each hour elapsed after receiving the "on" signal, and in that the visual display does not change the displayed numerical value after a predetermined number of hours have elapsed after receiving the "on" signal, until receiving the "off" signal or until the pulse oximetry monitor is switched off. wherein the signals comprise an "on" signal and an "off" signal, wherein the "on" signal signals that the pulse oximetry sensor is applied to a patient, and the "off" signal signals that the pulse oximetry sensor has been removed from the patient, wherein the evaluation unit comprises a time measurement unit that measures the time from receiving an "on" signal to receiving an "off" signal, and wherein the output unit is a visual display, characterised in that the visual display displays a numerical value of how many hours have elapsed within each hour elapsed after receiving the "on" signal, and in that the visual display does not change the displayed numerical value after a predetermined number of hours have elapsed after receiving the "on" signal, until receiving the "off" signal or until the pulse oximetry monitor is switched off.
Shutoff valve for installation in a conduit system for a medium, in particular in a building installation, comprising: a housing comprising an inlet for inflowing medium and an outlet for outflowing medium; a motor-operated shutoff element; means (18, 20, 22) for measuring the flow speed of the medium between the inlet and the outlet, which comprise a flow measuring chamber received in the housing; and a control and evaluation unit to which signals from at least one of the flow-measuring means (18, 20, 22) are applied, which unit is designed to close the shutoff element at specified values of the flow speed, flow quantity and/or flow duration of the medium, and/or to generate a leak warning signal, wherein the means (18, 20, 22) for measuring the flow speed of the medium further comprise at least one first ultrasonic probe and at least one second ultrasonic probe, wherein the at least one first ultrasonic probe and the at least one second ultrasonic probe are received in the wall of the housing, and the shutoff element is arranged in the flow measuring chamber between the first ultrasonic probe and the second ultrasonic probe, characterized in that the first ultrasonic probe and the second ultrasonic probe are arranged opposite one another, at the ends of the flow measuring chamber. a housing comprising an inlet for inflowing medium and an outlet for outflowing medium; a motor-operated shutoff element; means (18, 20, 22) for measuring the flow speed of the medium between the inlet and the outlet, which comprise a flow measuring chamber received in the housing; and a control and evaluation unit to which signals from at least one of the flow-measuring means (18, 20, 22) are applied, which unit is designed to close the shutoff element at specified values of the flow speed, flow quantity and/or flow duration of the medium, and/or to generate a leak warning signal, wherein the means (18, 20, 22) for measuring the flow speed of the medium further comprise at least one first ultrasonic probe and at least one second ultrasonic probe, wherein the at least one first ultrasonic probe and the at least one second ultrasonic probe are received in the wall of the housing, and the shutoff element is arranged in the flow measuring chamber between the first ultrasonic probe and the second ultrasonic probe, characterized in that the first ultrasonic probe and the second ultrasonic probe are arranged opposite one another, at the ends of the flow measuring chamber.
A method for observing mobile device behaviors over a period of time to recognize mobile device behaviors inconsistent with normal operation patterns, the method comprising: dynamically determining in a processor of the mobile device mobile device behaviors that are to be observed by: observing mobile device behaviors over the period of time; and identifying a limited set of behaviors associated with inconsistent operations as the mobile device behaviors to be observed by: receiving behavior inputs from one or more of a high-level application, a system kernel and a driver API after filtering by an adaptive filter; receiving a context input regarding operations of the mobile device; performing spatial correlations of the received behavior inputs and the received context input; and generating a behavior vector; adaptively observing the determined mobile device behaviors in the processor of the mobile device to identify a suspicious mobile device behavior from a limited set of observations; and controlling an observation granularity of the adaptive observation. dynamically determining in a processor of the mobile device mobile device behaviors that are to be observed by: observing mobile device behaviors over the period of time; and identifying a limited set of behaviors associated with inconsistent operations as the mobile device behaviors to be observed by: receiving behavior inputs from one or more of a high-level application, a system kernel and a driver API after filtering by an adaptive filter; receiving a context input regarding operations of the mobile device; performing spatial correlations of the received behavior inputs and the received context input; and generating a behavior vector; adaptively observing the determined mobile device behaviors in the processor of the mobile device to identify a suspicious mobile device behavior from a limited set of observations; and controlling an observation granularity of the adaptive observation. observing mobile device behaviors over the period of time; and identifying a limited set of behaviors associated with inconsistent operations as the mobile device behaviors to be observed by: receiving behavior inputs from one or more of a high-level application, a system kernel and a driver API after filtering by an adaptive filter; receiving a context input regarding operations of the mobile device; performing spatial correlations of the received behavior inputs and the received context input; and generating a behavior vector; receiving behavior inputs from one or more of a high-level application, a system kernel and a driver API after filtering by an adaptive filter; receiving a context input regarding operations of the mobile device; performing spatial correlations of the received behavior inputs and the received context input; and generating a behavior vector; adaptively observing the determined mobile device behaviors in the processor of the mobile device to identify a suspicious mobile device behavior from a limited set of observations; and controlling an observation granularity of the adaptive observation.
A teat cup assembly liner comprising: a mouthpiece defining a teat opening; and a barrel joined to the mouthpiece, and defining a bore and a longitudinal axis aligned with the teat opening; wherein the barrel comprises: a lower locking ring joined to a lower portion of the barrel and extending radially outwardly from the barrel; and an upper locking ring joined to the lower portion of the barrel, extending radially outwardly from the barrel, and spaced apart from the lower locking ring to define an annular recess, characterized in that the lower portion of the barrel defines an alignment recess radially spaced apart from the longitudinal axis and to be releasably engaged by a shell key. a barrel joined to the mouthpiece, and defining a bore and a longitudinal axis aligned with the teat opening; wherein the barrel comprises: a lower locking ring joined to a lower portion of the barrel and extending radially outwardly from the barrel; and an upper locking ring joined to the lower portion of the barrel, extending radially outwardly from the barrel, and spaced apart from the lower locking ring to define an annular recess, characterized in that the lower portion of the barrel defines an alignment recess radially spaced apart from the longitudinal axis and to be releasably engaged by a shell key. a lower locking ring joined to a lower portion of the barrel and extending radially outwardly from the barrel; and an upper locking ring joined to the lower portion of the barrel, extending radially outwardly from the barrel, and spaced apart from the lower locking ring to define an annular recess, characterized in that the lower portion of the barrel defines an alignment recess radially spaced apart from the longitudinal axis and to be releasably engaged by a shell key.
A luminescent layer-forming composition containing a solvent, a charge-transporting material and a luminescent material, in which the charge-transporting material includes a hole-transporting material and an electron-transporting material each having a partial structure represented by the following formula (2-A) or (2-B), and the luminescent material includes three or more kinds of luminescent materials and has an emission spectrum having at least two kinds of emission maximums, wherein all the luminescent materials are a phosphorescent organic metal complex compound having a ligand having a basic skeleton represented by the following formula (IIIg) and the combination of the basic skeleton of the ligands in the individual organic metal complex compounds differs between the three or more kinds of the organic metal complex compounds: wherein T represents an atom or an atomic group selected from -O-, -S-, -C(Ar 21)(Ar 22)-, -N(Ar 23)-, and -Si(Ar 24)(Ar 25)-, Ar 21 to Ar 25 each independently represent a hydrogen atom, or an aromatic ring group having from 3 to 30 carbon atoms and optionally having a substituent, (Ar 21 and Ar 22) and (Ar 24 and Ar 25) may bond to each other to form a ring structure, Z 3 to Z 6 each independently represent a group =CH- or a group =N-; wherein T represents an atom or an atomic group selected from -O-, -S-, -C(Ar 26)(Ar 27)-, -N(Ar 28)-, and -Si(Ar 29)(Ar 30)-, Ar 26 to Ar 30 each independently represent a hydrogen atom, or an aromatic ring group having from 3 to 30 carbon atoms and optionally having a substituent, (Ar 26 and Ar 27) and (Ar 29 and Ar 30) may bond to each other to form a ring structure, Z 3 to Z 6 each independently represent a group =CH- or a group =N-; wherein the ring A1 represents any of a benzene ring, a naphthalene ring, a benzothiophene ring or a phenanthrene ring, the ring A2 represents any of a pyridine ring, a quinoline ring, an isoquinoline ring, a quinoxaline ring, a quinazoline ring, a pyrrole ring, an imidazole ring, a benzothiazole ring or a benzisoquinoline ring.
A drive unit (1a-1f; 1) for driving a voltage-driven switching element (2a-2f; 2), the drive unit comprising: a first connector configured so as to be connected to a gate resistor of the voltage-driven switching element; a feedback connector configured so as to be connected to the gate resistor of the voltage-driven switching element; a second connector configured so as to be connected to a driving power source (Vcc); a switching element having a first input-output electrode connected to the first connector and a second input-output electrode connected to the second connector; and a controller connected to a control electrode of the switching element and the feedback connector, wherein the controller is configured so as to: control a voltage supplied to the gate resistor of the voltage-driven switching element (2a-2f; 2) by using a voltage at the feedback connector when an electrical connection between the feedback connector and the gate resistor of the voltage-driven switching element is ensured; the drive unit (1a-1f; 1) being characterized in that the controller is further configured so as to: control the voltage supplied to the gate resistor of the voltage-driven switching element by using a voltage at the first connector when the electrical connection between the feedback connector and the gate resistor of the voltage-driven switching element is not ensured. a first connector configured so as to be connected to a gate resistor of the voltage-driven switching element; a feedback connector configured so as to be connected to the gate resistor of the voltage-driven switching element; a second connector configured so as to be connected to a driving power source (Vcc); a switching element having a first input-output electrode connected to the first connector and a second input-output electrode connected to the second connector; and a controller connected to a control electrode of the switching element and the feedback connector, wherein the controller is configured so as to: control a voltage supplied to the gate resistor of the voltage-driven switching element (2a-2f; 2) by using a voltage at the feedback connector when an electrical connection between the feedback connector and the gate resistor of the voltage-driven switching element is ensured; control a voltage supplied to the gate resistor of the voltage-driven switching element (2a-2f; 2) by using a voltage at the feedback connector when an electrical connection between the feedback connector and the gate resistor of the voltage-driven switching element is ensured; the controller is further configured so as to: control the voltage supplied to the gate resistor of the voltage-driven switching element by using a voltage at the first connector when the electrical connection between the feedback connector and the gate resistor of the voltage-driven switching element is not ensured. control the voltage supplied to the gate resistor of the voltage-driven switching element by using a voltage at the first connector when the electrical connection between the feedback connector and the gate resistor of the voltage-driven switching element is not ensured.
An elevator control cabinet wherein the elevator control cabinet provides a space which is enclosed by walls (4, 5) and a roof, one of the walls (4, 5) consists entirely or partly of a removable cover or a door covering an access opening into the space, an electrical apparatus is provided in the space, the electrical apparatus has a front part facing the access opening and a back part facing away from the access opening, characterized in that a pair of rails are attached to one or more of the walls to extend towards the access opening, the electrical apparatus comprises a pair of rollers arranged in the back part of the electrical apparatus and on opposite sides of the electrical apparatus to contact the pair of rails which via the pair of rollers carry at least a part of the weight of the electrical apparatus, at least one lifting element is provided in an upper part of the electrical apparatus at a location closer to the front part than said pair of rollers, said at least one lifting element providing an attachment point for hoisting the electrical apparatus. the elevator control cabinet provides a space which is enclosed by walls (4, 5) and a roof, one of the walls (4, 5) consists entirely or partly of a removable cover or a door covering an access opening into the space, an electrical apparatus is provided in the space, the electrical apparatus has a front part facing the access opening and a back part facing away from the access opening, characterized in that a pair of rails are attached to one or more of the walls to extend towards the access opening, the electrical apparatus comprises a pair of rollers arranged in the back part of the electrical apparatus and on opposite sides of the electrical apparatus to contact the pair of rails which via the pair of rollers carry at least a part of the weight of the electrical apparatus, at least one lifting element is provided in an upper part of the electrical apparatus at a location closer to the front part than said pair of rollers, said at least one lifting element providing an attachment point for hoisting the electrical apparatus.
An optical waveguide in which in operation light propagates by total internal reflection, comprising, a grating structure having three diffraction regions: a first diffraction region (22, 32) for diffracting image-bearing light into the waveguide; a second diffraction region for further diffracting the image-bearing light so as to expand it in a first dimension; and a third diffraction region (30, 34) for further diffracting the image-bearing light so as to expand it in a second dimension and for releasing it from the waveguide as a visible image, wherein at least two of said diffraction regions comprise aligned gratings, characterised in that one or two reflecting surfaces (24, 28) are provided which reflect light received from one of said at least two of said diffraction regions to the other of said at least two of said diffraction regions, wherein the one or two reflecting surfaces are perpendicular to two parallel surfaces of the waveguide between which light propagates within the waveguide parallel to said two parallel surfaces by total internal reflection, and wherein a first of the one or two reflecting surfaces is positioned to receive the image-bearing light which has been expanded in the first dimension by diffraction by the second diffraction region and to reflect the image-bearing light back to the grating structure for further diffraction by the third diffraction region to expand the image-bearing light in the second dimension, and/or wherein a second of the one or two reflecting surfaces is positioned to receive the image-bearing light which has been diffracted into the waveguide by the first diffraction region and to reflect the image-bearing light back to the grating structure for diffraction by the second diffraction region to expand the image-bearing light in the first dimension. a first diffraction region (22, 32) for diffracting image-bearing light into the waveguide; a second diffraction region for further diffracting the image-bearing light so as to expand it in a first dimension; and a third diffraction region (30, 34) for further diffracting the image-bearing light so as to expand it in a second dimension and for releasing it from the waveguide as a visible image, wherein at least two of said diffraction regions comprise aligned gratings,
A method for transporting sample containers in a modular sample store comprising a motorized robot, a storage area with storage stacks, and a transfer area above the storage area, characterized in that the method comprises: a) providing the motorized robot with an insulated hood located in the transfer area, a lifting device for lifting storage stacks at least partially out of the storage area in an essentially vertical or Z-direction and for lowering stacks into an interface unit in the transfer area or into the storage area, at least one platform for transporting at least one sample container within the transfer area; b) at least partially lifting a selected storage stack into the insulated hood of the motorized robot with the lifting device to thermally insulate the storage stack from a temperature of the transfer area of the modular sample store, the motorized robot using the lifting device for lifting the selected storage stack up to a level where a certain sample container of the selected storage stack is accessible by a spatula of the motorized robot; c) moving the spatula into the insulated hood and below the certain sample container; d) incrementally lowering the stack with the lifting device, enabling the certain sample container to lay on the spatula; and e) moving the certain sample container out of the selected storage stack with the spatula in a horizontal direction. a) providing the motorized robot with an insulated hood located in the transfer area, a lifting device for lifting storage stacks at least partially out of the storage area in an essentially vertical or Z-direction and for lowering stacks into an interface unit in the transfer area or into the storage area, at least one platform for transporting at least one sample container within the transfer area; b) at least partially lifting a selected storage stack into the insulated hood of the motorized robot with the lifting device to thermally insulate the storage stack from a temperature of the transfer area of the modular sample store, the motorized robot using the lifting device for lifting the selected storage stack up to a level where a certain sample container of the selected storage stack is accessible by a spatula of the motorized robot; c) moving the spatula into the insulated hood and below the certain sample container; d) incrementally lowering the stack with the lifting device, enabling the certain sample container to lay on the spatula; and e) moving the certain sample container out of the selected storage stack with the spatula in a horizontal direction.
Amidine containing at least one structural unit of the formula where R 1 is a hydrogen radical or an alkyl, cycloalkyl or aralkyl radical optionally having unsaturated moieties, having 1 to 30 carbon atoms and optionally having a tertiary amino group, R 2 is an optionally alkyl-substituted 1,2-ethylene or 1,3-propylene radical, R 3 is an optionally alkyl-substituted 1,3-propylene or 1,4-butylene radical, and X is O or NR 4 where R 4 is a hydrogen radical or is an alkyl, cycloalkyl or aralkyl radical having 1 to 8 carbon atoms, characterized in that it has the formula where n is 1 or 2 or 3, and A is an n-valent radical which has a molecular weight in the range from 28 to 5'000 g/mol and is bonded via carbon atoms. R 1 is a hydrogen radical or an alkyl, cycloalkyl or aralkyl radical optionally having unsaturated moieties, having 1 to 30 carbon atoms and optionally having a tertiary amino group, R 2 is an optionally alkyl-substituted 1,2-ethylene or 1,3-propylene radical, R 3 is an optionally alkyl-substituted 1,3-propylene or 1,4-butylene radical, and X is O or NR 4 where R 4 is a hydrogen radical or is an alkyl, cycloalkyl or aralkyl radical having 1 to 8 carbon atoms, characterized in that it has the formula where n is 1 or 2 or 3, and A is an n-valent radical which has a molecular weight in the range from 28 to 5'000 g/mol and is bonded via carbon atoms. n is 1 or 2 or 3, and A is an n-valent radical which has a molecular weight in the range from 28 to 5'000 g/mol and is bonded via carbon atoms.