mhurhangee/ep-ind-claims huggingface dataset:
A device for producing milk froth, comprising a nozzle arrangement and a low pressure chamber assigned thereto, into which milk can be drawn from a milk feed line by applying steam to the nozzle arrangement, to which a suction line can be connected for establishing a fluid-guiding connection to a milk reservoir, wherein provision is made downstream from the low pressure chamber for an outlet opening for milk froth, wherein the device comprises a flushing pipe, which can be connected to the milk feed line in a fluid-guiding manner via connecting means, which can be arranged in a connection position, characterized in that the device comprises sensor means, by means of which it can be detected, whether the connecting means are located in the connection position and that the connecting means in the connection position connect an end of the milk feed line, which is embodied as connection end for connecting a suction line and which faces away from the low pressure chamber, to an end of the flushing line, which is arranged adjacent to the end of the milk feed line, which faces away from the low pressure chamber and which is embodied as inlet end, in a fluid-guiding manner.
A synthetic jet assembly comprising: a synthetic jet including: a first plate; a second plate spaced apart from the first plate; a spacer element positioned between the first and second plates to maintain the first and second plates in a spaced apart relationship, the spacer element including an orifice formed therein; and an actuator element (34, 36) coupled to at least one of the first and second plates to selectively cause deflection thereof such that a fluid flow is generated and projected out from the orifice; a rigid, stationary U-shaped mounting bracket positioned about the synthetic jet to support the synthetic jet; and a plurality of suspension tabs coupling the synthetic jet to the U-shaped mounting bracket in a suspended arrangement, wherein the plurality of suspension tabs comprises an arrangement of three suspension tabs, four suspension tabs, five suspension tabs, or six suspension tabs. a first plate; a second plate spaced apart from the first plate; a spacer element positioned between the first and second plates to maintain the first and second plates in a spaced apart relationship, the spacer element including an orifice formed therein; and an actuator element (34, 36) coupled to at least one of the first and second plates to selectively cause deflection thereof such that a fluid flow is generated and projected out from the orifice; a rigid, stationary U-shaped mounting bracket positioned about the synthetic jet to support the synthetic jet; and a plurality of suspension tabs coupling the synthetic jet to the U-shaped mounting bracket in a suspended arrangement, wherein the plurality of suspension tabs comprises an arrangement of three suspension tabs, four suspension tabs, five suspension tabs, or six suspension tabs.
A method at an embedded media terminal adapter, EMTA, for redirecting a call for troubleshooting, the steps comprising: downloading management information base, MIB, objects, wherein a first MIB object specifies a redirect address and a second MIB object specifies a redirect mode; storing the MIB objects in a MIB objects table, wherein each MIB object is stored with an associated operation identification number; receiving a redirect enable signal and the redirect address; receiving a call signal from an originating endpoint; and based on the redirect enable signal, redirecting voice packets associated with the call signal to the redirect address according to the redirect mode; and receiving a redirect disable signal, wherein receiving the redirect disable signal comprises: receiving a third MIB object, the third MIB object specifying disabling of the redirect mode; and replacing the second MIB object with the third MIB object. downloading management information base, MIB, objects, wherein a first MIB object specifies a redirect address and a second MIB object specifies a redirect mode; storing the MIB objects in a MIB objects table, wherein each MIB object is stored with an associated operation identification number; receiving a redirect enable signal and the redirect address; receiving a call signal from an originating endpoint; and based on the redirect enable signal, redirecting voice packets associated with the call signal to the redirect address according to the redirect mode; and receiving a redirect disable signal, wherein receiving the redirect disable signal comprises: receiving a third MIB object, the third MIB object specifying disabling of the redirect mode; and replacing the second MIB object with the third MIB object. receiving a third MIB object, the third MIB object specifying disabling of the redirect mode; and replacing the second MIB object with the third MIB object.
A microcapsule comprising a capsule core and a polymeric shell, wherein the core essentially contains only hydrophilic components and the shell comprises in polymerized form A) at least one poly(ester-urethane) containing at least 2 isocyanate groups, obtainable by reacting at least one polyester-polyol containing at least 2 OH groups with at least one polyisocyanate containing at least 2 NCO groups, and B) at least one compound which comprises at least 2 terminal groups which are reactive towards isocyanate-groups, which are selected from OH, NHR, or SH, wherein R is selected from hydrogen, alkyl, cycloalkyl or aryl; wherein the hydrophilic component comprises a pesticide. A) at least one poly(ester-urethane) containing at least 2 isocyanate groups, obtainable by reacting at least one polyester-polyol containing at least 2 OH groups with at least one polyisocyanate containing at least 2 NCO groups, and B) at least one compound which comprises at least 2 terminal groups which are reactive towards isocyanate-groups, which are selected from OH, NHR, or SH, wherein R is selected from hydrogen, alkyl, cycloalkyl or aryl;
Medical apparatus (1, 100) for the containment of hematomas for treatment following operations for implanting cardiac devices, said apparatus comprising a support unit in the shape of a jacket, externally enveloping at least a part of the patient's body and adapted to resist efforts aimed to detach said unit from said patient, at least one inflatable cushion (4, 40) held in place over or close to the patient's shoulder by said support unit, characterized in that it comprises a material arranged between said inflatable cushion and the patient's shoulder, said material being configured to distribute the pressure of said cushion, once inflated, on the patient's shoulder, said support unit comprising at least one pocket arranged to contain said material, said inflatable cushion comprising a sequence of three sectors adjacent to one another and joined together by long side thereof, the inflatable cushion having three sectors alternated with two junction areas, so that, once inflated it takes a wavy shape, said three sectors being simultaneously inflatable and deflectable by a tube connected to an inflation device while another tube is connected to a pressure detection means, wherein said sectors are 5 cm wide and 15.7 cm long and said junction area are 0.25 cm wide and 15.7 cm long.
Torch for tungsten inert gas welding, in particular a narrow-gap head for tungsten inert gas narrow-gap welding, in which an electrode unit is held in a housing made of a metal by means of an electrode holder and there is a cooling device for cooling the electrode unit, by which liquid cooling medium can be conducted into the electrode holder and out of the electrode holder again, characterized in that - the cooling device comprises at least one electrically conductive separating wall within a shell of the electrode holder for forming cooling channels (25, 26), at least the at least one separating wall being electrically connected to the electrode unit, the current transfer taking place either exclusively via the separating wall or via the shell and the separating wall, and - an outer surface of the electrode holder is provided with an insulating layer, at least in the region of the housing surrounding the electrode holder. - the cooling device comprises at least one electrically conductive separating wall within a shell of the electrode holder for forming cooling channels (25, 26), at least the at least one separating wall being electrically connected to the electrode unit, the current transfer taking place either exclusively via the separating wall or via the shell and the separating wall, and - an outer surface of the electrode holder is provided with an insulating layer, at least in the region of the housing surrounding the electrode holder.
A storage apparatus comprising: a control unit; a first digital interface having a first port; and a second digital interface having a second port, wherein the second port is arranged to be set in a disabled state, in a case that the first digital interface receives a predetermined command from a first external apparatus connected to the first port and then the control unit determines that the first external apparatus is an apparatus that is capable of accessing a removable medium connected to the storage apparatus, wherein the first port is arranged to be set in a disabled state, in a case that the second digital interface receives a predetermined command from a second external apparatus connected to the second port and then the control unit determines that the second external apparatus is an apparatus that is capable of accessing a removable medium connected to the storage apparatus, wherein in the case that the first port is set in the disabled state, the first port is arranged such that electrical connection with the first external apparatus is impossible to establish, and wherein in the case that the second port is set in the disabled state, the second port is arranged such that electrical connection with the second external apparatus is impossible to establish. a control unit; a first digital interface having a first port; and a second digital interface having a second port, wherein the second port is arranged to be set in a disabled state, in a case that the first digital interface receives a predetermined command from a first external apparatus connected to the first port and then the control unit determines that the first external apparatus is an apparatus that is capable of accessing a removable medium connected to the storage apparatus, wherein the first port is arranged to be set in a disabled state, in a case that the second digital interface receives a predetermined command from a second external apparatus connected to the second port and then the control unit determines that the second external apparatus is an apparatus that is capable of accessing a removable medium connected to the storage apparatus, wherein in the case that the first port is set in the disabled state, the first port is arranged such that electrical connection with the first external apparatus is impossible to establish, and wherein in the case that the second port is set in the disabled state, the second port is arranged such that electrical connection with the second external apparatus is impossible to establish.
A computer-implemented method of determining a scattering spectrum of an eye, comprising: receiving data from a detector indicative of a reflected wave of radiation reflected from the retina, wherein the reflected wave of radiation is formed by an incident wave of masked radiation directed towards a retina of the eye, such that at least one region masked from the incident wave is present on the retina; determining a first back scattering spectrum indicative of light scattered from an optical media of the eye in dependence on a portion of the reflected wave of radiation corresponding to the at least one masked region; determining a second back scattering spectrum indicative of light scattered from a neural retina of the eye in dependence on retinal structure information representative of neural retinal structure, characterised in that the step of determining the second back scattering spectrum comprises receiving structural data indicative of a 3D structure of a neural retina, deriving, from the structural data, a map of the neural retina, and determining the second back scattering spectrum in dependence thereon; wherein the method is further characterised by determining the scattering spectrum of the eye in dependence on the first back scattering spectrum and the second back scattering spectrum. receiving data from a detector indicative of a reflected wave of radiation reflected from the retina, wherein the reflected wave of radiation is formed by an incident wave of masked radiation directed towards a retina of the eye, such that at least one region masked from the incident wave is present on the retina; determining a first back scattering spectrum indicative of light scattered from an optical media of the eye in dependence on a portion of the reflected wave of radiation corresponding to the at least one masked region; determining a second back scattering spectrum indicative of light scattered from a neural retina of the eye in dependence on retinal structure information representative of neural retinal structure, characterised in that the step of determining the second back scattering spectrum comprises receiving structural data indicative of a 3D structure of a neural retina, deriving, from the structural data, a map of the neural retina, and determining the second back scattering spectrum in dependence thereon; wherein the method is further characterised by receiving structural data indicative of a 3D structure of a neural retina, deriving, from the structural data, a map of the neural retina, and determining the second back scattering spectrum in dependence thereon; wherein the method is further characterised by determining the scattering spectrum of the eye in dependence on the first back scattering spectrum and the second back scattering spectrum.
A switching mode power supply comprising: a feedback network configured to provide a feedback signal; a control circuit operatively coupled to the feedback network; and wherein: the feedback network outputs the feedback signal to the control circuit based on a load condition; the control circuit comprises: a burst-mode controller, receiving the feedback signal and outputting a control signal and a low frequency modulation signal; and a circuit selecting module, receiving the feedback signal and the control signal from the burst-mode controller and selecting one of them as an output signal; the control circuit compares the value of the feedback signal to a threshold value to indicate a light load condition or a normal load condition; the control circuit switches the switching mode power supply to operate using the burst-mode controller for the light load condition or not using the burst-mode controller for the normal load condition. a feedback network configured to provide a feedback signal; a control circuit operatively coupled to the feedback network; and wherein: the feedback network outputs the feedback signal to the control circuit based on a load condition; the control circuit comprises: a burst-mode controller, receiving the feedback signal and outputting a control signal and a low frequency modulation signal; and a circuit selecting module, receiving the feedback signal and the control signal from the burst-mode controller and selecting one of them as an output signal; the control circuit compares the value of the feedback signal to a threshold value to indicate a light load condition or a normal load condition; the control circuit switches the switching mode power supply to operate using the burst-mode controller for the light load condition or not using the burst-mode controller for the normal load condition. the feedback network outputs the feedback signal to the control circuit based on a load condition; the control circuit comprises: a burst-mode controller, receiving the feedback signal and outputting a control signal and a low frequency modulation signal; and a circuit selecting module, receiving the feedback signal and the control signal from the burst-mode controller and selecting one of them as an output signal; a burst-mode controller, receiving the feedback signal and outputting a control signal and a low frequency modulation signal; and a circuit selecting module, receiving the feedback signal and the control signal from the burst-mode controller and selecting one of them as an output signal; the control circuit compares the value of the feedback signal to a threshold value to indicate a light load condition or a normal load condition; the control circuit switches the switching mode power supply to operate using the burst-mode controller for the light load condition or not using the burst-mode controller for the normal load condition.
A system, comprising: a garment, configured to cover at least a portion of a body of a subject; one or more sound transmitters coupled to the garment, configured to transmit sound through the body of the subject; a plurality of sound detectors (22, 96) coupled to the garment, configured: to detect the transmitted sound following passage of the transmitted sound through the body of the subject, to detect body sound emanating from the body of the subject, and to generate a plurality of sound-detector outputs in response to detecting the transmitted sound and the body sound; and a processor, configured to process the sound-detector outputs, and to generate a processor output in response thereto, wherein the processor is configured to construct, by processing the sound-detector outputs, an image of an interior of the body of the subject, and wherein the processor output includes the image, wherein the processor is further configured to identify, by processing the sound-detector outputs, a location of a source of the body sound, and to indicate the location in the image. a garment, configured to cover at least a portion of a body of a subject; one or more sound transmitters coupled to the garment, configured to transmit sound through the body of the subject; a plurality of sound detectors (22, 96) coupled to the garment, configured: to detect the transmitted sound following passage of the transmitted sound through the body of the subject, to detect body sound emanating from the body of the subject, and to generate a plurality of sound-detector outputs in response to detecting the transmitted sound and the body sound; and to detect the transmitted sound following passage of the transmitted sound through the body of the subject, to detect body sound emanating from the body of the subject, and to generate a plurality of sound-detector outputs in response to detecting the transmitted sound and the body sound; and a processor, configured to process the sound-detector outputs, and to generate a processor output in response thereto, wherein the processor is configured to construct, by processing the sound-detector outputs, an image of an interior of the body of the subject, and wherein the processor output includes the image, wherein the processor is further configured to identify, by processing the sound-detector outputs, a location of a source of the body sound, and to indicate the location in the image.
A system for coating a medical device, the system comprising: an enclosure having a first aperture and a second aperture, the first aperture sized to receive a first medical device, the second aperture sized to receive a second medical device; a coating dispenser disposed inside the enclosure; a first device configured to support the first medical device or a first medical device carrier; a second device configured to support the second medical device or a second medical device carrier; a first apparatus (208, 210) disposed outside of the enclosure, the first apparatus configured to move the first device toward and away from the first aperture; and characterized by a second apparatus (208, 210) disposed outside of the enclosure, the second apparatus configured to move the second device toward and away from the second aperture independently of movement of the first device toward and away from the first aperture. an enclosure having a first aperture and a second aperture, the first aperture sized to receive a first medical device, the second aperture sized to receive a second medical device; a coating dispenser disposed inside the enclosure; a first device configured to support the first medical device or a first medical device carrier; a second device configured to support the second medical device or a second medical device carrier; a first apparatus (208, 210) disposed outside of the enclosure, the first apparatus configured to move the first device toward and away from the first aperture; and characterized by a second apparatus (208, 210) disposed outside of the enclosure, the second apparatus configured to move the second device toward and away from the second aperture independently of movement of the first device toward and away from the first aperture.
A DNA aptamer that binds to one or more compounds from the group of the fluoroquinolones and is selected from the group consisting of a) an aptamer comprising, or consisting of, a nucleic acid sequence selected from the group consisting of SEQ ID NO: 14, 20, 36, 30, 37, 33, 25, 22, 39, 27, 41, 43 and 52; b) an aptamer having a nucleic acid sequence which is at least 98% identical to the nucleic acid sequence of an aptamer from a); c) an aptamer in which up to 2 nucleotides are substituted, deleted and/or inserted in the sequence having SEQ ID NO: 14, 20, 36, 30, 37, 33, 25, 22, 39, 27, 41, 43 or 52 compared to an aptamer from a) d) an aptamer in which up to 20 nucleotides are added at the 3' end and/or at the 5' end in the sequence having one of the SEQ ID NOs: 14, 20, 36, 30, 37, 33, 25, 22, 39, 27, 41, 43 and 52 compared to an aptamer from a); e) a fragment of an aptamer according to a), b) or c), comprising at least 30 nucleotides; and f) a derivative of an aptamer according to a), b), c), d) or e), wherein an aptamer according to a), b), c), d) or e) is chemically modified on the nucleobase, on the pentose or on the phosphate backbone and has a chemical structure that does not occur in natural DNA or RNA. a) an aptamer comprising, or consisting of, a nucleic acid sequence selected from the group consisting of SEQ ID NO: 14, 20, 36, 30, 37, 33, 25, 22, 39, 27, 41, 43 and 52; b) an aptamer having a nucleic acid sequence which is at least 98% identical to the nucleic acid sequence of an aptamer from a); c) an aptamer in which up to 2 nucleotides are substituted, deleted and/or inserted in the sequence having SEQ ID NO: 14, 20, 36, 30, 37, 33, 25, 22, 39, 27, 41, 43 or 52 compared to an aptamer from a) d) an aptamer in which up to 20 nucleotides are added at the 3' end and/or at the 5' end in the sequence having one of the SEQ ID NOs: 14, 20, 36, 30, 37, 33, 25, 22, 39, 27, 41, 43 and 52 compared to an aptamer from a); e) a fragment of an aptamer according to a), b) or c), comprising at least 30 nucleotides; and f) a derivative of an aptamer according to a), b), c), d) or e), wherein an aptamer according to a), b), c), d) or e) is chemically modified on the nucleobase, on the pentose or on the phosphate backbone and has a chemical structure that does not occur in natural DNA or RNA.