mhurhangee/ep-ind-claims huggingface dataset:
A three-axes pedestal for stabilizing the pointing of a mobile tracking antenna, said pedestal comprising: a base support with an azimuth axis support having a centerline defining a first axis or azimuth axis; a first frame being rotatably mounted on the azimuth axis support to rotate about the first axis, said first frame holding at least part of a first horizontal linear bearing assembly; a fourth frame holding an elevation axis support with a centerline defining a third axis or elevation axis; and a fifth frame supporting the tracking antenna and being rotatably mounted on the elevation axis support of the fourth frame to rotate about the third axis; characterized in that the pedestal further comprises a second frame with a lower frame part slidably interconnected to the first frame via the first horizontal linear bearing assembly, said first linear bearing assembly including dampers or suspension members for dampening linear slide movement of the second frame along the first linear bearing assembly and thereby for dampening the relative movement of the second frame to the first frame; and a third frame interconnected to an upper part of the second frame, said third frame holding a cross-elevation axis support with a centerline defining a second axis or cross-elevation axis; and in that the fourth frame is rotatably mounted on the cross-elevation axis support of the third frame to rotate about the second axis. a base support with an azimuth axis support having a centerline defining a first axis or azimuth axis; a first frame being rotatably mounted on the azimuth axis support to rotate about the first axis, said first frame holding at least part of a first horizontal linear bearing assembly; a fourth frame holding an elevation axis support with a centerline defining a third axis or elevation axis; and a fifth frame supporting the tracking antenna and being rotatably mounted on the elevation axis support of the fourth frame to rotate about the third axis; characterized in that the pedestal further comprises a second frame with a lower frame part slidably interconnected to the first frame via the first horizontal linear bearing assembly, said first linear bearing assembly including dampers or suspension members for dampening linear slide movement of the second frame along the first linear bearing assembly and thereby for dampening the relative movement of the second frame to the first frame; and a third frame interconnected to an upper part of the second frame, said third frame holding a cross-elevation axis support with a centerline defining a second axis or cross-elevation axis; and in that the fourth frame is rotatably mounted on the cross-elevation axis support of the third frame to rotate about the second axis.
Method for controlling a compressed air installation comprising one or several compressed air networks, as well as a number of mutually communicating controllers (6, 9, 13, 23, 24, 25 or 26) for controlling components that are part of an aforesaid compressed air network, characterised in that - the control of the above-mentioned components is such that none of the controllers (6, 9, 13, 23, 24, 25 or 26) determines the operational condition of all components that are controlled by other controllers; - each of the controllers (6, 9, 13, 23, 24, 25 or 26) subsequently compares the data coming from the other controllers (6, 9, 13, 23, 24, 25 or 26) and determines the points of operation of the components connected to the controller (6, 9, 13, 23, 24, 25 or 26) concerned, and in that - a connection between a component and a respective controller (6, 9, 13, 23, 24, 25 or 26) is wireless. - the control of the above-mentioned components is such that none of the controllers (6, 9, 13, 23, 24, 25 or 26) determines the operational condition of all components that are controlled by other controllers; - each of the controllers (6, 9, 13, 23, 24, 25 or 26) subsequently compares the data coming from the other controllers (6, 9, 13, 23, 24, 25 or 26) and determines the points of operation of the components connected to the controller (6, 9, 13, 23, 24, 25 or 26) concerned, and in that - a connection between a component and a respective controller (6, 9, 13, 23, 24, 25 or 26) is wireless.
A device comprising: a processor (202, 542); a network frame handling element (214, 500) coupled to said processor and including a capability to loop back received frames; and a network port (251, 261, 263, 271) coupled to said processor and to said network frame handling element, said network port including a media interface module (220, 526, 528) with capabilities to loop back remote optical signals, wherein said processor is adapted to configure said network frame handling element and said network port to leave a normal operating mode and enter a diagnostic mode on request, where said network port is configured as a dynamic port; wherein said diagnostic mode includes at least one of looping back received optical signals and received frames and occurs for a diagnostic mode period; wherein said processor is characterized by being adapted to return said network frame handling element and said network port to said normal operating mode based on said diagnostic mode period ending and configuring said network port as said dynamic port so that said processor can automatically revert back said dynamic port from said diagnostic mode to said normal operating mode after said diagnostic mode has ended; and wherein said request is received at said network port from a connected device or is generated internally by said network frame handling element on power on or error. a processor (202, 542); a network frame handling element (214, 500) coupled to said processor and including a capability to loop back received frames; and a network port (251, 261, 263, 271) coupled to said processor and to said network frame handling element, said network port including a media interface module (220, 526, 528) with capabilities to loop back remote optical signals, wherein said processor is adapted to configure said network frame handling element and said network port to leave a normal operating mode and enter a diagnostic mode on request, where said network port is configured as a dynamic port; wherein said diagnostic mode includes at least one of looping back received optical signals and received frames and occurs for a diagnostic mode period; wherein said processor is characterized by being adapted to return said network frame handling element and said network port to said normal operating mode based on said diagnostic mode period ending and configuring said network port as said dynamic port so that said processor can automatically revert back said dynamic port from said diagnostic mode to said normal operating mode after said diagnostic mode has ended; and wherein said request is received at said network port from a connected device or is generated internally by said network frame handling element on power on or error.
Method for controlling an automatic or automated shift system, with one or more shift cylinders (10, 12) actuated by pressure medium via assigned shift valves (14, 16, 18, 20), with at least one main cut-off valve (4, 6) preceding the shift valves and with a control unit for controlling the shift valves and the at least one main cut-off valve, the pressure medium demand for shift operations to be carried out being determined and the at least one main cut-off valve (4, 6) being activated as a function of this, characterized in that the pressure medium demand of the possible different shift scenarios of the shift system is determined beforehand, in that the pressure medium demand values or shift times corresponding to these are stored for the at least one main cut-off valve (4, 6) in a data field of the control unit, and in that, upon the initiation of a shift command and before a pressure breakdown in a shift arrangement following the at least one main cut-off valve (4, 6), shift times for the at least one main cut-off valve (4, 6), which are in each case calculated from the assigned stored pressure medium demand value in the control unit or are stored directly therein, are retrieved, and the said main cut-off valve is activated according to the known pressure medium demand.
A perovskite precursor composition comprising: - perovskite precursors; and - a salt of a cationic imidazole derivative in which at least one of the two nitrogen atoms in the imidazole ring is linked to a carbon chain bearing a cyano (-C=N) group, characterised in that the cationic imidazole derivative has the formula or the formula: wherein, in formula: R 1 is C1-C4 alkyl, more preferably C1-C3 alkyl, and most preferably methyl; and R 2 is -(CH 2) n - wherein n is 2 to 4; and in formula: R 2a is -(CH 2) a - wherein a is 2 to 4; and R 2b is -(CH 2) b - wherein b is 2 to 4. - perovskite precursors; and - a salt of a cationic imidazole derivative in which at least one of the two nitrogen atoms in the imidazole ring is linked to a carbon chain bearing a cyano (-C=N) group, characterised in that the cationic imidazole derivative has the formula or the formula: R 1 is C1-C4 alkyl, more preferably C1-C3 alkyl, and most preferably methyl; and R 2 is -(CH 2) n - wherein n is 2 to 4; and in formula: R 2a is -(CH 2) a - wherein a is 2 to 4; and R 2b is -(CH 2) b - wherein b is 2 to 4. R 2a is -(CH 2) a - wherein a is 2 to 4; and R 2b is -(CH 2) b - wherein b is 2 to 4.
An electrophoretic analysis method for analyzing a neutral protease-containing sample, comprising exposing a sample containing a protease to be analyzed to pH conditions under which the protease is rapidly deactivated, and then subjecting the sample to electrophoresis, wherein, if SDS-PAGE is used as the electrophoresis technique, the SDS treatment is carried out at 10 °C to 30 °C, and wherein the protease is a neutral metalloprotease, and the pH conditions under which the protease is rapidly deactivated are pH 0.7 to 2.0.
Method for producing etch-resistant structures (masks) on the surfaces of metallic pressing tools, specifically continuous press belts or press plates, by means of a laser, wherein a surface of the pressing tool to be structured is provided with a thermo-sensitive, etch-resistant coating and the laser burns structures out of the etch-resistant coating, characterised in that the structure is burnt out with a laser which emits light having a wavelength in the infrared range between 780 nm and 1mm.
A drive unit housing for an electric vehicle comprising: a first housing section forming a first compartment to house an electrical inverter comprising a capacitor and a power switching network; a second housing section forming a second compartment to house an electric motor; an inlet port to receive a fluid; a shared wall separating the first compartment and the second compartment, the shared wall defining fluid pathways in fluid communication with the inlet port to circulate the fluid to cool the electrical inverter, the fluid pathways including a fluid channel and a fluid chamber, wherein the fluid travels through the fluid channel to cool the capacitor and then enters the fluid chamber to cool the power switching network; and an outlet port in fluid communication with the fluid pathways to discharge the fluid. a first housing section forming a first compartment to house an electrical inverter comprising a capacitor and a power switching network; a second housing section forming a second compartment to house an electric motor; an inlet port to receive a fluid; a shared wall separating the first compartment and the second compartment, the shared wall defining fluid pathways in fluid communication with the inlet port to circulate the fluid to cool the electrical inverter, the fluid pathways including a fluid channel and a fluid chamber, wherein the fluid travels through the fluid channel to cool the capacitor and then enters the fluid chamber to cool the power switching network; and an outlet port in fluid communication with the fluid pathways to discharge the fluid.
A method of forming a gas treatment element for use in a gas treatment apparatus, comprising the steps:- forming a sheet material including at least one adsorbent material and at least one binder; and locating layers of said sheet material adjacent each other to form a gas treatment element and characterised in that said sheet material is formed by phase inversion including washing a first solvent of said binder from a mixture of said binder and said adsorbent material using a second solvent.
Method for driving a conveyor, in which method electric power is supplied to the drive machinery of the conveyor, characterized in that: - electric power is supplied to the drive machinery of the conveyor depending on the power requirement with a supply device to be selected from at least two different adjustable supply devices (3, 4), which are each adjustable in a way that at least one supply magnitude, such as current, voltage and/or supply power, can be adjusted, - the supply device (3, 4) supplying power to the drive machinery is changed on the basis of the power requirement of the conveyor, wherein the amplitudes (6, 7) of the voltages to be supplied with the aforementioned at least two different adjustable supply devices (3, 4) are adjusted in the changeover situation of the supply device, and wherein the amplitudes (6, 7) at the fundamental frequencies of the voltages to be supplied with the aforementioned at least two different adjustable supply devices (3, 4) are adjusted to be essentially equal in the changeover situation of the supply device. - electric power is supplied to the drive machinery of the conveyor depending on the power requirement with a supply device to be selected from at least two different adjustable supply devices (3, 4), which are each adjustable in a way that at least one supply magnitude, such as current, voltage and/or supply power, can be adjusted, - the supply device (3, 4) supplying power to the drive machinery is changed on the basis of the power requirement of the conveyor, wherein the amplitudes (6, 7) of the voltages to be supplied with the aforementioned at least two different adjustable supply devices (3, 4) are adjusted in the changeover situation of the supply device, and wherein the amplitudes (6, 7) at the fundamental frequencies of the voltages to be supplied with the aforementioned at least two different adjustable supply devices (3, 4) are adjusted to be essentially equal in the changeover situation of the supply device.
A process for forming a pack of several containers, consisting of wrapping an assembly of containers, arranged in an orderly way, by a sheet made from a heat-sealable and heat-shrinkable plastic material, at least two opposed edges of the sheet being superimposed and heat-sealed to each other to obtain a pack whose envelope has a substantially parallelepiped shape, characterized in that before wrapping said sheet made from a heat-sealable and heat-shrinkable plastic material around the assembly of the containers to get the pack, at least a part of the surface areas of the sheet destined to get in contact with the containers is at least partially coated with a substance that prevents each of said containers from slipping with respect to the envelope of the pack, said surface areas partially coated with the anti-slip substance and in contact with a container defining retaining position for two end sections of a handle in the form of a strip secured to said envelope in respective positions corresponding to parts of the envelope wherein the anti-slip substance is present and in contact with a respective container and the pack is provided with a handle in the form of a strip whose two end sections shall be bound to the envelope of the pack, such that said two end sections are secured to the envelope in said respective retaining positions.
Locking device for a door or a window, comprising a main lock serving for actuation and at least one secondary lock coupled to the main lock by means of a drive rod, the secondary lock having a latch bolt and a pivot bolt, the pivot bolt having, as a pivot bolt drive, a spring acting on the pivot bolt, by means of which spring the pivot bolt is preloaded in a position in which it is pivoted into the secondary lock, the pivot bolt being coupled to the latch bolt in such a way that when the latch bolt reaches a partially extended limit position when extending out of the secondary lock, the pivot bolt, released and driven by the spring, is pivoted into a position in which it is pivoted out of the secondary lock, the pivot bolt being decoupled from the drive rod when it is pivoted out, characterized in that the pivot bolt is coupled to the latch bolt by means of a two-armed release lever, a first arm of the release lever being able to be actuated by the latch bolt and a second arm of the release lever blocking or releasing the pivot bolt.
A detachable vena cava filter assembly, comprising a catheter body, an outer sheath concentrically disposed about the catheter body wherein the catheter body and the outer sheath are moveable relative to one another; and a vena cava filter member having a first end and a collar member extending therefrom, the collar member coupled to the catheter body, and a second end movable relative to the catheter body, characterised in that the collar member has a first state in which the collar member is contracted about the catheter body and a second state in which the collar member is movably coupled and releasable from the catheter body, thereby detaching the vena cava filter member from the catheter body and completely releasing the vena cava filter member from the remaining vena cava filter assembly.
Hand-guided treatment device, comprising - a motor housing, - a retaining body arranged in a side region of the motor housing for holding a guide element protruding from the motor housing for a treatment tool which rotates or circulates around the guide element, - an electric drive motor arranged in the motor housing for driving the treatment tool, wherein the drive motor comprises a drive shaft with a tool drive region passing through the retaining body, and a rotor held rotationally fixedly on the drive shaft, and - a lubricant pump drive coupled to a lubricant pump drive region of the drive shaft for driving a lubricant pump arranged in the motor housing for supplying lubricant to the treatment tool, - wherein the lubricant pump drive region and the tool drive region of the drive shaft are arranged on opposite sides (8a, 8b) of the rotor, and - wherein the retaining body comprises a region outside the motor housing which is configured for holding the guide element protruding from the motor housing for the treatment tool which rotates or circulates around the guide element, characterized in that - the drive motor comprises a stator carrier which is formed integrally with a region of the retaining body inside the motor housing. - a motor housing, - a retaining body arranged in a side region of the motor housing for holding a guide element protruding from the motor housing for a treatment tool which rotates or circulates around the guide element, - an electric drive motor arranged in the motor housing for driving the treatment tool, wherein the drive motor comprises a drive shaft with a tool drive region passing through the retaining body, and a rotor held rotationally fixedly on the drive shaft, and - a lubricant pump drive coupled to a lubricant pump drive region of the drive shaft for driving a lubricant pump arranged in the motor housing for supplying lubricant to the treatment tool, - wherein the lubricant pump drive region and the tool drive region of the drive shaft are arranged on opposite sides (8a, 8b) of the rotor, and - wherein the retaining body comprises a region outside the motor housing which is configured for holding the guide element protruding from the motor housing for the treatment tool which rotates or circulates around the guide element, characterized in that - the drive motor comprises a stator carrier which is formed integrally with a region of the retaining body inside the motor housing.
An organic electroluminescent module having a touch sensing function, the organic electroluminescent module comprising: a capacitive touch sensing circuit unit; and a light-emitting device driving circuit unit including a light-emitting device driving circuit section for driving an organic electroluminescent panel, wherein the organic electroluminescent panel comprises paired opposite plate electrodes (4, 6) therein, the paired electrodes (4, 6) are connected to the light-emitting device driving circuit unit, one of the paired electrodes is a touch sensing electrode, the touch sensing electrode being connected to the touch sensing circuit unit, and characterized in that the touch sensing circuit unit and the light-emitting device driving circuit unit each are respectively connected to independent grounds (27A, 27B), wherein the organic electroluminescent panel controlled by the light-emitting device driving circuit section is driven to continuously emit light, while a touch sensing term periodically occurs under the control of the touch sensing circuit section. a capacitive touch sensing circuit unit; and a light-emitting device driving circuit unit including a light-emitting device driving circuit section for driving an organic electroluminescent panel, wherein the organic electroluminescent panel comprises paired opposite plate electrodes (4, 6) therein, the paired electrodes (4, 6) are connected to the light-emitting device driving circuit unit, one of the paired electrodes is a touch sensing electrode, the touch sensing electrode being connected to the touch sensing circuit unit, and characterized in that the touch sensing circuit unit and the light-emitting device driving circuit unit each are respectively connected to independent grounds (27A, 27B), wherein the organic electroluminescent panel controlled by the light-emitting device driving circuit section is driven to continuously emit light, while a touch sensing term periodically occurs under the control of the touch sensing circuit section.
A method (1500, 500, 600) for voice forwarding in automated chatting, comprising: receiving (1510, 502, 602), by a chatbot, from a first entity in a group of users, a first request for transmitting a voice segment; receiving (1520, 508, 606), by the chatbot, the voice segment from the first entity; characterised in that the method comprises: detecting, by the chatbot, an indication of voice preference from the first request; detecting, by the chatbot, an emotion of the voice segment; converting, by the chatbot, the voice segment into a target voice segment based on the voice preference and the emotion; generating (1530, 510, 608), by the chatbot, a voice message based on the target voice segment; and transmitting (1540, 522, 626), by the chatbot, the voice message based on the first request or forbidding the transmitting (1540, 522, 626) of the voice message based on the first request if the emotion is negative. receiving (1510, 502, 602), by a chatbot, from a first entity in a group of users, a first request for transmitting a voice segment; receiving (1520, 508, 606), by the chatbot, the voice segment from the first entity; detecting, by the chatbot, an indication of voice preference from the first request; detecting, by the chatbot, an emotion of the voice segment; converting, by the chatbot, the voice segment into a target voice segment based on the voice preference and the emotion; generating (1530, 510, 608), by the chatbot, a voice message based on the target voice segment; and transmitting (1540, 522, 626), by the chatbot, the voice message based on the first request or forbidding the transmitting (1540, 522, 626) of the voice message based on the first request if the emotion is negative.