mhurhangee/patent-ind-claim-en huggingface dataset:
A detection apparatus comprising: an electrode formation unit that is configured to be brought into contact with an object to form an electrode; a detection unit that constitutes an electrode pair with the electrode, wherein the detection unit further includes an electron source emission unit capable of emitting an electron source , - wherein said electron source is selected from glucose or lactic acid, or solutions thereof, and - wherein the electron source emission unit includes a nozzle for emitting said electron source, an electron source storage unit communicating with the nozzle via a pipe, and a pump arranged in the pipe, and the electron source emission unit is configured so that a predetermined amount of the electron source is emitted by operating the pump controlled by a control unit ; a measurement unit that is configured to measure a current flowing between the electrode and the detection unit ; and a determination unit that is configured to determine presence or absence of an abnormality related to bacteria attached to the object according to the current measured by the measurement unit . an electrode formation unit that is configured to be brought into contact with an object to form an electrode; a detection unit that constitutes an electrode pair with the electrode, wherein the detection unit further includes an electron source emission unit capable of emitting an electron source , - wherein said electron source is selected from glucose or lactic acid, or solutions thereof, and - wherein the electron source emission unit includes a nozzle for emitting said electron source, an electron source storage unit communicating with the nozzle via a pipe, and a pump arranged in the pipe, and the electron source emission unit is configured so that a predetermined amount of the electron source is emitted by operating the pump controlled by a control unit ; - wherein said electron source is selected from glucose or lactic acid, or solutions thereof, and - wherein the electron source emission unit includes a nozzle for emitting said electron source, an electron source storage unit communicating with the nozzle via a pipe, and a pump arranged in the pipe, and the electron source emission unit is configured so that a predetermined amount of the electron source is emitted by operating the pump controlled by a control unit ; a measurement unit that is configured to measure a current flowing between the electrode and the detection unit ; and a determination unit that is configured to determine presence or absence of an abnormality related to bacteria attached to the object according to the current measured by the measurement unit .
An electrostatic spray device for electrostatically spraying a liquid composition directly on a surface of skin to form a film on the skin, wherein the electrostatic spray device includes a container capable of storing the liquid composition, a nozzle configured to eject the liquid composition, a power supply configured to apply a voltage to the nozzle, and a voltage stabilizer configured to stabilize the voltage applied by the power supply to the nozzle , and the liquid composition contains component (a) and component (b): (a) one or more volatile substances selected from alcohols and ketones, and (b) a polymer having film formability, wherein the electrostatic spray device includes a housing which is to be held with a single hand, wherein the voltage stabilizer includes a voltage detector configured to detect the voltage applied to the nozzle, a comparator configured to compare the voltage detected by the voltage detector to a reference voltage to determine a difference therebetween and to output a signal, and a voltage controller configured to control the voltage of the power supply on the basis of the signal output from the comparator. the electrostatic spray device includes a container capable of storing the liquid composition, a nozzle configured to eject the liquid composition, a power supply configured to apply a voltage to the nozzle, and a voltage stabilizer configured to stabilize the voltage applied by the power supply to the nozzle , and a container capable of storing the liquid composition, a nozzle configured to eject the liquid composition, a power supply configured to apply a voltage to the nozzle, and a voltage stabilizer configured to stabilize the voltage applied by the power supply to the nozzle , and the liquid composition contains component (a) and component (b): (a) one or more volatile substances selected from alcohols and ketones, and (b) a polymer having film formability, wherein (a) one or more volatile substances selected from alcohols and ketones, and (b) a polymer having film formability, wherein the electrostatic spray device includes a housing which is to be held with a single hand, wherein the voltage stabilizer includes a voltage detector configured to detect the voltage applied to the nozzle, a comparator configured to compare the voltage detected by the voltage detector to a reference voltage to determine a difference therebetween and to output a signal, and a voltage controller configured to control the voltage of the power supply on the basis of the signal output from the comparator.
A dialkyl sulfide represented by general formula below in the formula, R 1 and R 2 each independently represent an alkyl group, and n is an integer, wherein the content of a compound having an n value of 1 in the general formula is 10.0% by mass or less relative to the total amount of compounds represented by the general formula , the total of the content of a compound having an n value of 2 in the general formula , the content of a compound having an n value of 3, and the content of a compound having an n value of 4 is 50.0% to 70.0% by mass relative to the total amount of compounds represented by the general formula , and the total of the content of a compound having an n value of 5 in the general formula , the content of a compound having an n value of 6, the content of a compound having an n value of 7, and the content of a compound having an n value of 8 is 30.0% to 40.0% by mass relative to the total amount of compounds represented by the general formula . in the formula, R 1 and R 2 each independently represent an alkyl group, and n is an integer, wherein the content of a compound having an n value of 1 in the general formula is 10.0% by mass or less relative to the total amount of compounds represented by the general formula , the total of the content of a compound having an n value of 2 in the general formula , the content of a compound having an n value of 3, and the content of a compound having an n value of 4 is 50.0% to 70.0% by mass relative to the total amount of compounds represented by the general formula , and the total of the content of a compound having an n value of 5 in the general formula , the content of a compound having an n value of 6, the content of a compound having an n value of 7, and the content of a compound having an n value of 8 is 30.0% to 40.0% by mass relative to the total amount of compounds represented by the general formula .
Bucket wheel device with a system for determining the wear of material-removing elements which are arranged on the blades of a bucket wheel of the bucket wheel device, comprising at least one recording unit , which is arranged resting on the bucket wheel device and by means of which measurement signals can be transmitted and/or received, and can be used to measure the wear of the material-removing elements during a movement of the material-removing elements during operation, characterized in that the system comprises a rotary transducer , wherein the rotational position of the bucket wheel can be detected by the rotary transducer .
A method for transmitting ions in a mass spectrometer from a region of higher pressure to a region of lower pressure comprising passing the ions through a gating apparatus disposed between said higher pressure region and said lower pressure region, wherein the region of higher pressure is in an ion guide at atmospheric pressure, the gating apparatus comprising: first and second electrostatic lenses, each of said electrostatic lenses being operably controlled by one or more controllers capable of maintaining different voltages on each of said lenses; wherein the first electrostatic lens is disposed adjacent to the region of higher pressure and operates in a continuous mode having a voltage that is fixed at a predetermined value so as to allow traversal of ions through the first lens, and wherein the second electrostatic lens is disposed adjacent to the region of lower pressure and is situated downstream from said first lens, said second electrostatic lens having a voltage that varies between at least two different voltages wherein, at a first voltage, the ions can traverse through said second lens and, at a second voltage, the ions are prevented from traversing through said second electrostatic lens. first and second electrostatic lenses, each of said electrostatic lenses being operably controlled by one or more controllers capable of maintaining different voltages on each of said lenses; wherein the first electrostatic lens is disposed adjacent to the region of higher pressure and operates in a continuous mode having a voltage that is fixed at a predetermined value so as to allow traversal of ions through the first lens, and wherein the second electrostatic lens is disposed adjacent to the region of lower pressure and is situated downstream from said first lens, said second electrostatic lens having a voltage that varies between at least two different voltages wherein, at a first voltage, the ions can traverse through said second lens and, at a second voltage, the ions are prevented from traversing through said second electrostatic lens.
Transport device , in particular for transporting luggage, the transport device comprising: - a support structure ; - a coupling element ; - a rolling body with an axis of symmetry (S), wherein the rolling body has a rotational symmetry, and a diameter of the rolling body is less than or equal to its extent along the axis of symmetry (S); - and a transport container for receiving objects, in particular luggage, wherein the transport container is releasably or fixedly connected to the support structure ; - wherein the support structure connects the coupling element and the rolling body , and more than half the volume of the transport container lies on a first side of a plane (E), in particular a side facing a ground surface (U) in operative use, wherein the plane (E) is defined by two points on the axis of symmetry (S) and a centre point of the coupling element , and wherein the transport container is arranged between the coupling element and the rolling body ; - wherein the rolling body is foldable and/or retractable in a direction towards the underside or towards the topside of the transport container such that the extent of the transport device can be reduced when manoeuvring. - a support structure ; - a coupling element ; - a rolling body with an axis of symmetry (S), wherein the rolling body has a rotational symmetry, and a diameter of the rolling body is less than or equal to its extent along the axis of symmetry (S); - and a transport container for receiving objects, in particular luggage, wherein the transport container is releasably or fixedly connected to the support structure ; - wherein the support structure connects the coupling element and the rolling body , and more than half the volume of the transport container lies on a first side of a plane (E), in particular a side facing a ground surface (U) in operative use, wherein the plane (E) is defined by two points on the axis of symmetry (S) and a centre point of the coupling element , and wherein the transport container is arranged between the coupling element and the rolling body ; - wherein the rolling body is foldable and/or retractable in a direction towards the underside or towards the topside of the transport container such that the extent of the transport device can be reduced when manoeuvring.
Cage for retaining tapered rollers in a roller bearing, said cage having two rings spaced apart axially by a plurality of bridges each having two lateral walls forming between each of the adjacent bridges and a segment of each of said rings a peripheral frame wherein a tapered roller is held while being able to rotate about its own axis (Y), each of said lateral walls having an exterior surface extending externally at an angle converging towards the exterior surface of an adjacent lateral wall in order to form between said exterior surfaces an exterior narrowing preventing the tapered rollers held in the peripheral frame from emerging to the outside, said cage being characterised in that each of the lateral walls has two adjacent interior surfaces respectively external and internal , which are separated by a step , each of said interior surfaces converging towards the centre of the cage over a distance that is sufficient to form between two adjacent internal - and respectively external - interior surfaces an internal - or respectively external - narrowing preventing the tapered rollers held in the peripheral frame from emerging to the inside.
A method comprising: obtaining DC luminance or chrominance component coefficient values for the blocks of a plurality of image frames in a sequence of image frames; generating a scene change value for each of the plurality of image frames by summing differences of the DC luminance or chrominance component coefficient values between corresponding sampling points of sequential ones of the plurality of image frames; ranking the plurality of image frames according to their scene change values, from lowest to highest; selecting one or more of the image frames, of the sequence of image frames, with the lowest scene change value for removal based on the ranked plurality of image frames; generating a modified version of the sequence of image frames by removing the selected one or more of the image frames from the plurality of image frames; and inserting a corresponding set of blank frames at a beginning or an end of the modified version of the sequence of image frames. obtaining DC luminance or chrominance component coefficient values for the blocks of a plurality of image frames in a sequence of image frames; generating a scene change value for each of the plurality of image frames by summing differences of the DC luminance or chrominance component coefficient values between corresponding sampling points of sequential ones of the plurality of image frames; ranking the plurality of image frames according to their scene change values, from lowest to highest; selecting one or more of the image frames, of the sequence of image frames, with the lowest scene change value for removal based on the ranked plurality of image frames; generating a modified version of the sequence of image frames by removing the selected one or more of the image frames from the plurality of image frames; and inserting a corresponding set of blank frames at a beginning or an end of the modified version of the sequence of image frames.
A method performed by a master base station in a system for applying a carrier aggregation using the master base station and a secondary base station under a core network based separation architecture where bearers are split at a serving gateway and data are transmitted directly to the master base station from the serving gateway using at least one unmodified bearer and to the secondary base station from the serving gateway using at least one modified bearer, the method comprising: transmitting , to a mobility management entity, MME, a request message requesting modification for one or more bearers from the master base station to the secondary base station, the request message including at least one identifier of the at least one bearer to be modified and at least one identifier of the at least one bearer which remains unmodified, wherein the request message is notifying the MME to reuse an MME UE S1 APID which is allocated to the terminal before the request message is transmitted; and receiving , from the MME, a confirmation message in response to the request message, the confirmation message comprising the MME UE S1AP ID without a newly assigned MME UE S1AP ID. transmitting , to a mobility management entity, MME, a request message requesting modification for one or more bearers from the master base station to the secondary base station, the request message including at least one identifier of the at least one bearer to be modified and at least one identifier of the at least one bearer which remains unmodified, wherein the request message is notifying the MME to reuse an MME UE S1 APID which is allocated to the terminal before the request message is transmitted; and receiving , from the MME, a confirmation message in response to the request message, the confirmation message comprising the MME UE S1AP ID without a newly assigned MME UE S1AP ID.
A control device for vehicle traveling that executes autonomous driving control that causes a vehicle to travel autonomously, the autonomous driving control including autonomous lane change control that achieves autonomous lane change of a vehicle , and the control device for vehicle traveling executing: a process of starting the autonomous lane change control in response to receiving an instruction to start the autonomous lane change ; a process of determining whether or not a stop condition of the autonomous lane change is established ; a process of giving priority to steering of a driver over steering that is caused by the autonomous lane change control when there is a steering intervention by the driver during execution of the autonomous lane change control ; a process of continuing the autonomous driving control when a driver performs a steering intervention in a same direction as a direction of steering that is requested by the autonomous lane change control, and establishment of the stop condition is not recognized , during execution of the autonomous lane change control ; and a termination announcement process of announcing termination of the autonomous driving control when the steering intervention in said same direction is performed , and establishment of the stop condition is recognized , during execution of the autonomous lane change control . a process of starting the autonomous lane change control in response to receiving an instruction to start the autonomous lane change ; a process of determining whether or not a stop condition of the autonomous lane change is established ; a process of giving priority to steering of a driver over steering that is caused by the autonomous lane change control when there is a steering intervention by the driver during execution of the autonomous lane change control ; a process of continuing the autonomous driving control when a driver performs a steering intervention in a same direction as a direction of steering that is requested by the autonomous lane change control, and establishment of the stop condition is not recognized , during execution of the autonomous lane change control ; and a termination announcement process of announcing termination of the autonomous driving control when the steering intervention in said same direction is performed , and establishment of the stop condition is recognized , during execution of the autonomous lane change control .
A microelectromechanical (MEMS) Fabry-Perot interferometer , comprising: a transparent substrate ; a first metallic mirror structure on the transparent substrate , comprising a first metal layer and a first support layer (122-123); a second metallic mirror structure above the first metallic mirror structure on opposite side of the first metallic mirror structure in view of the transparent substrate , the second metallic mirror structure comprising a second metal layer and a second support layer (132-133), wherein the first (122-123) and the second support layer (132-133) are parallel and comprising at least one of aluminum oxide or titanium dioxide; a Fabry-Perot cavity and an insulation layer between the first (122-123) and the second support layer (132-133), wherein the Fabry-Perot cavity has been formed by partially removing the insulation layer after providing the second mirror structure ; and electrodes (150-151) for providing electrical contacts to the first and the second metal layer , the microelectromechanical (MEMS) Fabry-Perot interferometer further comprising a first aluminum oxide layer arranged below the transparent substrate ; and a second aluminum oxide layer arranged above the transparent substrate , wherein the second aluminum oxide layer being part of the first support layer (122-123) of the first metallic mirror structure , wherein the first metal layer of the first metallic mirror structure is arranged above the second aluminum oxide layer . a transparent substrate ; a first metallic mirror structure on the transparent substrate , comprising a first metal layer and a first support layer (122-123); a second metallic mirror structure above the first metallic mirror structure on opposite side of the first metallic mirror structure in view of the transparent substrate , the second metallic mirror structure comprising a second metal layer and a second support layer (132-133), wherein the first (122-123) and the second support layer (132-133) are parallel and comprising at least one of aluminum oxide or titanium dioxide; a Fabry-Perot cavity and an insulation layer between the first (122-123) and the second support layer (132-133), wherein the Fabry-Perot cavity has been formed by partially removing the insulation layer after providing the second mirror structure ; and electrodes (150-151) for providing electrical contacts to the first and the second metal layer , the microelectromechanical (MEMS) Fabry-Perot interferometer further comprising a first aluminum oxide layer arranged below the transparent substrate ; and a second aluminum oxide layer arranged above the transparent substrate , wherein the second aluminum oxide layer being part of the first support layer (122-123) of the first metallic mirror structure , wherein the first metal layer of the first metallic mirror structure is arranged above the second aluminum oxide layer .
A method for producing a Wyeth or Western Reserve strain vaccinia virus comprising: (a) infecting HeLa cells adhered to a surface with a vaccinia virus by contacting the HeLa cells with vaccinia virus at a multiplicity of infection (m.o.i.) of between 0.01 and 0.05 plaque forming units (pfu)/cell; (b) culturing the infected cells in an infection medium comprising 0% - 10% serum and having a pH, of about 7.2, or about 7.3 or about 7.4 for a period of 40-80 hours at temperature between 36 °C and 37.5 °C; and (c) harvesting vaccinia virus from the culture, whereby at least 50 pfu of vaccinia virus per HeLa cell is produced, wherein the HeLa cells are cultivated in one or more roller bottles or in a bioreactor comprising a cumulative culture area of at least 168,000 cm 2 . (a) infecting HeLa cells adhered to a surface with a vaccinia virus by contacting the HeLa cells with vaccinia virus at a multiplicity of infection (m.o.i.) of between 0.01 and 0.05 plaque forming units (pfu)/cell; (b) culturing the infected cells in an infection medium comprising 0% - 10% serum and having a pH, of about 7.2, or about 7.3 or about 7.4 for a period of 40-80 hours at temperature between 36 °C and 37.5 °C; and (c) harvesting vaccinia virus from the culture,