mhurhangee/ep-ind-claims huggingface dataset:
An electronic bridge system, comprising: a first interface to couple to an electrical or electro-mechanical installation to receive system information from the installation; a second interface to couple to a second component of the installation, wherein the second component is to be bypassed or interrupted by the bridge system; a bridge circuit coupled to the second interface and having a control port, the bridge circuit configured to cause bypassing or interrupting the second component upon activation; and a safety circuit coupled to the first interface and having an output coupled to the control port, the safety circuit configured to output one of an enable signal and a disable signal as a function of the system information, wherein the enable signal activates the bridge circuit, characterised in that the bridge circuit includes a selector switch and a first relay having a coil part, a first switch (60.1) and a second switch (60.2), wherein the second switch (60.2) is connected in series to terminals of the second interface when the selector switch is in a position "on," and configured to close a path between the terminals, wherein the first switch (60.1) is connected to the control port to close a path to the coil part of the relay, and wherein the selector switch is arranged to be parallel to the first switch (60.1) when the selector switch is in a position "activate." a first interface to couple to an electrical or electro-mechanical installation to receive system information from the installation; a second interface to couple to a second component of the installation, a bridge circuit coupled to the second interface and having a control port, the bridge circuit configured to cause bypassing or interrupting the second component upon activation; and a safety circuit coupled to the first interface and having an output coupled to the control port, the safety circuit configured to output one of an enable signal and a disable signal as a function of the system information, wherein the enable signal activates the bridge circuit, characterised in that the bridge circuit includes a selector switch and a first relay having a coil part, a first switch (60.1) and a second switch (60.2), wherein the second switch (60.2) is connected in series to terminals of the second interface when the selector switch is in a position "on," and configured to close a path between the terminals, wherein the first switch (60.1) is connected to the control port to close a path to the coil part of the relay, and wherein the selector switch is arranged to be parallel to the first switch (60.1) when the selector switch is in a position "activate."
Method for producing a moulding provided with at least one decorative part, comprising an injection mould and an infeed installation for the moulding, wherein the injection mould comprises at least one die, characterized by the following method steps once the injection mould has been closed: a) feeding the decorative part that is disposed on a tape element into the injection mould which is composed substantially of a first die (3.1) and of a second die (3.2); b) releasing the decorative part from the tape element by way of a release punch which is guided through the first die (3.1) of the injection mould; c) simultaneously feeding a positioning punch in the direction of the release punch through the second die (3.2) of the injection mould, and clamping the decorative part between the free ends of the release punch and of the positioning punch, and positioning the release punch and the positioning punch in such a manner within the injection mould that the decorative part is in the desired position; d) in a further step, in-mould laminating the decorative part in the injection mould such that the decorative part is fixed; e) subsequently returning the release punch such that space for the injection-moulding procedure to be continued is provided behind the decorative part, on that side that is opposite the positioning punch. a) feeding the decorative part that is disposed on a tape element into the injection mould which is composed substantially of a first die (3.1) and of a second die (3.2); b) releasing the decorative part from the tape element by way of a release punch which is guided through the first die (3.1) of the injection mould; c) simultaneously feeding a positioning punch in the direction of the release punch through the second die (3.2) of the injection mould, and clamping the decorative part between the free ends of the release punch and of the positioning punch, and positioning the release punch and the positioning punch in such a manner within the injection mould that the decorative part is in the desired position; d) in a further step, in-mould laminating the decorative part in the injection mould such that the decorative part is fixed; e) subsequently returning the release punch such that space for the injection-moulding procedure to be continued is provided behind the decorative part, on that side that is opposite the positioning punch.
A decanter centrifuge with a rotating bowl with a shaft (8, 9) provided with at least one solids discharge port and at least one clarified liquid discharge port and a screw conveyor, disposed coaxially within said rotating bowl, rotated in the same direction with a differential rotational speed, where a feed suspension to be separated is introduced into a ring shaped space formed between said rotating bowl and said screw conveyor through a central feed pipe fixed to the end of the screw conveyor, which is supported in at least one bearing (16, 17), the feed suspension can be separated by centrifugal force into a solid and a liquid phase so that said solid phase is discharged from said solid discharge port and said liquid phase is discharged from said clarified liquid discharging apparatus, wherein a liquid phase conduit is arranged in the shaft guiding the liquid phase outside of the bowl bearings, a liquid phase discharge valve is provided outside the bowl bearings on the side facing away from the bowl and screw conveyor, whereby the liquid phase discharge valve being varied during operation of the decanter centrifuge by a hand wheel via a transmission or by a motor, a sealing (6,7) at the end of the feed pipe is provided, characterized in that the sealing (6,7) at the end of the feed pipe is provided as a double axial sealing wherein between axial sealing and axial sealing there is a space into which cooling or lubrication water is introduced under pressure, wherein the cooling or lubrication water is provided to flow through lubrication water channel to the screw conveyor bearing.
A household appliance, in particular a dishwasher, washing machine or the like, having a water supply unit comprising a water supply pipe for supplying water, in particular for supplying drinking water from the drinking water network, wherein the water supply unit has at least one first actuator, in particular a water inlet valve, for opening and/or closing the water pipe, wherein a service water unit (8, 9, 10, 11, 12, 14) is provided for service water of the household appliance, wherein at least one decoupling unit, in particular an air gap, is provided between the service water unit and the water supply unit for decoupling the service water of the household appliance from the water supply pipe, in particular from the drinking water network, so that the water supply pipe comprises at least one first opening designed as a water outlet opening, wherein at least the water supply pipe comprises at least one second opening, wherein the second opening is designed as an air inflow opening for the inflow of air into the water supply pipe, characterised in that a channel and/or guide element is provided on the outside of the air inflow opening in order to conduct or guide inflowing air.
A heat sink, comprising a base and a plurality of fins, wherein the plurality of fins are disposed on the base to form a cooling fin structure; each of the fins comprises a root and a tip that are disposed opposite to each other; the root is connected to the base; the tip is located on a side, far away from the base, of the fin; characterized in that a heated area, a dropping pipe, and a spacing strip that separates the heated area from the dropping pipe are formed in the fin; the heated area is located between the root and the spacing strip; the dropping pipe is located between the spacing strip and the tip; a first passage and a second passage are formed between the heated area and the dropping pipe; a hydraulic diameter of a pipeline in the heated area is less than a critical dimension, so that a working medium in the heated area is heated to form a gas-liquid plug flow flowing toward the first passage and flowing into the dropping pipe through the first passage; and a hydraulic diameter of the dropping pipe is greater than or equal to the critical dimension, and a pressure of liquid at an intersection of the second passage and the dropping pipe is greater than a pressure of liquid at an intersection of the second passage and the heated area, so that liquid in the dropping pipe flows toward the heated area through the second passage; wherein the first passage and the second passage are disposed at two ends of the spacing strip; the first passage is disposed at a top of the fin, and the second passage is disposed at a bottom of the fin.
A semiconductor device having a field effect transistor, comprising: a channel layer having a first nitride semiconductor layer, an electron supply layer formed over the channel layer and having a second nitride semiconductor layer having a band gap different from that of the first nitride semiconductor layer, a source electrode formed over the electron supply layer, a drain electrode formed over the electron supply layer while being separated from the source electrode, a cap layer having a p type semiconductor layer, formed over the electron supply layer between the source electrode and the drain electrode, and having an inclined side surface, an insulating film having an opening on the upper surface of the cap layer and covering the side surface of the cap layer, and a gate electrode formed in the opening portion and extending over the side surface of the cap layer on the side of the drain electrode via the insulating film, wherein an angle θ between the upper surface of the electron supply layer and the side surface of the cap layer falls within the following range: 15°≤θ<90°. a channel layer having a first nitride semiconductor layer, an electron supply layer formed over the channel layer and having a second nitride semiconductor layer having a band gap different from that of the first nitride semiconductor layer, a source electrode formed over the electron supply layer, a drain electrode formed over the electron supply layer while being separated from the source electrode, a cap layer having a p type semiconductor layer, formed over the electron supply layer between the source electrode and the drain electrode, and having an inclined side surface, an insulating film having an opening on the upper surface of the cap layer and covering the side surface of the cap layer, and a gate electrode formed in the opening portion and extending over the side surface of the cap layer on the side of the drain electrode via the insulating film, wherein an angle θ between the upper surface of the electron supply layer and the side surface of the cap layer falls within the following range: 15°≤θ<90°.
A connecting unit configured for detachable mounting to the tip of a crane boom in order to form a connection between the crane boom and an associated crane implement, the connecting unit comprising: - an insertion part adapted to be inserted into a hollow crane boom section (27b6) at the tip of the crane boom; and - a holding part, which is fixed to the insertion part and configured to form a support for the crane implement, characterized in that the connecting unit further comprises: - one or more supporting elements (12a, 12b; 12a', 12b'), each of which being moveably mounted to the insertion part so as to be moveable transversely to the longitudinal axis of the insertion part in order to allow the supporting element (12a, 12b; 12a', 12b') to be pushed outwards in relation to the longitudinal axis of the insertion part and against an inner surface of said crane boom section (27b6) and thereby take up a play between the insertion part and the crane boom section (27b6); and - an actuating device for moving said one or more supporting elements (12a, 12b; 12a', 12b') transversely to the longitudinal axis of the insertion part. - an insertion part adapted to be inserted into a hollow crane boom section (27b6) at the tip of the crane boom; and - a holding part, which is fixed to the insertion part and configured to form a support for the crane implement, - one or more supporting elements (12a, 12b; 12a', 12b'), each of which being moveably mounted to the insertion part so as to be moveable transversely to the longitudinal axis of the insertion part in order to allow the supporting element (12a, 12b; 12a', 12b') to be pushed outwards in relation to the longitudinal axis of the insertion part and against an inner surface of said crane boom section (27b6) and thereby take up a play between the insertion part and the crane boom section (27b6); and - an actuating device for moving said one or more supporting elements (12a, 12b; 12a', 12b') transversely to the longitudinal axis of the insertion part.
A bacterial formulation comprising bacteria of the species Bifidobacterium bifidum, Bifidobacterium breve, and/or Bifidobacterium adolescentis for use in a method of treating cancer in a human subject, wherein the method comprises co-administering to the subject an immune checkpoint inhibitor with the bacterial formulation.
A hemostasis valve, comprising a housing having a proximal end defining a proximal opening and a distal end defining a distal opening, said proximal and distal openings (32, 36) configured for passage of a medical device therethrough, said housing further defining a cavity between said proximal and said distal ends (30, 34), a first roller (22; 22') configured to be received within said cavity and configured for rotation about a first axis, said first roller (22; 22') defining first and second axial end sections (90, 92) and a central section (94; 94') intermediate said first and second axial end sections (90, 92), and characterised in that said first roller (22; 22') defines a concave surface (104; 114, 118) between said first and second axial end sections (90,92), and a first sleeve disposed about said first roller (22; 22'), said first sleeve elastically deformable and configured to assume a first form when the medical device is absent from said cavity, wherein a radially inner surface of said first sleeve is located at a first distance (D1 26) from said central section (94; 94') of said first roller (22; 22') and a second form when the medical device is present in said cavity, wherein said radially inner surface of said first sleeve is located at a second distance (D2 26) from said central section (94; 94') of said first roller (22; 22'), said second distance (D2 26) less than said first distance (D1 26).
Effector device able to be moved or oriented by an automated system such as a manipulator arm, the effector device comprising a base, an effector extending from the base along a longitudinal axis, and a protective device passing, by means of an actuator, from a retracted state to a state in which it is deployed around the effector, and vice versa, the protective device being fixed to the said base in such a way as to be moved and/or oriented with the effector, the effector device being characterized in that the protective device comprises a flexible framework, the protective device passing, under the effect of the bending of the framework, from a retracted state to a state in which it is deployed around the effector or from a state in which it is deployed around the effector to a retracted state, and in that the actuator collaborates with the framework in such a way that when the actuator passes from a first to a second state, the framework is bent further, and when the actuator passes from the second to the first state, the framework is not bent as much.
A method for printing a large surface, in particular for a surface which is located on a substrate which cannot be fed to a printing device and which can be divided in one direction into printing paths corresponding to the printing width of a print head, the print head being mounted on a first axis so as to be movable along a printing path in the vertical y-direction, wherein the first axle is mounted on a chassis movable in the horizontal x-direction, and wherein the surface is printed by sequentially printing the vertical printing paths, wherein the orthogonal distance Az0 in the horizontal z-direction, which is orthogonal to the horizontal x-direction, of a reference point of the device is determined at a plurality of points distributed over the vertical printing path to the surface to be printed and the orthogonal distance Az0 in the horizontal z-direction of the print head from the surface to be printed at the points distributed over the vertical printing path is set in each case in accordance with a previously recorded measured value, characterized in that the recorded measured values Az0 of each vertical printing path for each point measured along the printing path are combined in a control device at a specific height in the y-direction to form measurement series, wherein a trend is determined from the measured values of at least one measurement series, a steering movement of the chassis, which can be moved in the horizontal direction, being changed if the trend exceeds a previously defined threshold.
An optical control device comprising: a thin plate; a ridge type optical waveguide formed in the thin plate; and control electrodes adapted to receive an applied microwave signal, for controlling light passing through the optical waveguide, wherein the control electrodes are configured to include a first electrode and a second electrode disposed to interpose the thin plate therebetween, the first electrode has a coplanar type electrode including at least a signal electrode and a ground electrode, the second electrode has at least a ground electrode and is configured to apply an electric field to the optical waveguide in cooperation with the signal electrode of the first electrode, and characterized in that the thin plate is a Z-cut type LiNbO 3 substrate and has a thickness of 10 μm or less; and the relationship W/t between the width W of the signal electrode of the first electrode and the thickness t of the thin plate is within a range regulated to be equal to or larger than 0.2 and equal to or smaller than - 0.65t+5.3, t being expressed in μm. a thin plate; a ridge type optical waveguide formed in the thin plate; and control electrodes adapted to receive an applied microwave signal, for controlling light passing through the optical waveguide, wherein the control electrodes are configured to include a first electrode and a second electrode disposed to interpose the thin plate therebetween, the first electrode has a coplanar type electrode including at least a signal electrode and a ground electrode, the second electrode has at least a ground electrode and is configured to apply an electric field to the optical waveguide in cooperation with the signal electrode of the first electrode, and characterized in that the thin plate is a Z-cut type LiNbO 3 substrate and has a thickness of 10 μm or less; and the relationship W/t between the width W of the signal electrode of the first electrode and the thickness t of the thin plate is within a range regulated to be equal to or larger than 0.2 and equal to or smaller than - 0.65t+5.3, t being expressed in μm.
A wireless apparatus, comprising: a processor; and a non-transitory computer readable storage medium storing programming for execution by the processor, the programming, when executed by the processor, instructing the wireless apparatus to: communicate an orthogonal frequency division multiple access, OFDMA, frame over a 20 megahertz, MHz frequency channel, wherein the OFDMA frame including a 256 tones (200, 400, 500) consisting of 234 tones carried in a plurality of resource units, RUs (210, 410, 510), and 22 tones (220, 422, 426, 522,526) excluded from the plurality of RUs; wherein the plurality of RUs comprises 9 first RUs, or at least one first RU and at least one second RU, wherein each of the at least one first RU consists of 24 data tones and 2 pilot tones, each of the at least one second RU consists of 48 data tones and 4 pilot tones. a processor; and a non-transitory computer readable storage medium storing programming for execution by the processor, the programming, when executed by the processor, instructing the wireless apparatus to: communicate an orthogonal frequency division multiple access, OFDMA, frame over a 20 megahertz, MHz frequency channel, wherein the OFDMA frame including a 256 tones (200, 400, 500) consisting of 234 tones carried in a plurality of resource units, RUs (210, 410, 510), and 22 tones (220, 422, 426, 522,526) excluded from the plurality of RUs; wherein the plurality of RUs comprises 9 first RUs, or at least one first RU and at least one second RU, wherein each of the at least one first RU consists of 24 data tones and 2 pilot tones, each of the at least one second RU consists of 48 data tones and 4 pilot tones. communicate an orthogonal frequency division multiple access, OFDMA, frame over a 20 megahertz, MHz frequency channel, wherein the OFDMA frame including a 256 tones (200, 400, 500) consisting of 234 tones carried in a plurality of resource units, RUs (210, 410, 510), and 22 tones (220, 422, 426, 522,526) excluded from the plurality of RUs; wherein the plurality of RUs comprises 9 first RUs, or at least one first RU and at least one second RU, wherein each of the at least one first RU consists of 24 data tones and 2 pilot tones, each of the at least one second RU consists of 48 data tones and 4 pilot tones.