mhurhangee/ep-ind-claims huggingface dataset:
An apparatus comprising a metal wiring plate and a housing: wherein the metal wiring plate comprises a soldering portion (107a, 107b, 109a, 110a) to which an electronic device (101, 102) is soldered; and a wiring portion (107c, 109b, 110b) extending from the soldering portion and configured to electrically connect the electronic device to an other device, wherein the wiring portion includes a wall portion (107j, 109g) located adjacent to the soldering portion and configured to prevent melted solder applied to the soldering portion from spreading to areas outside the soldering portion; and the wall portion extends upward from the soldering portion in such manner that the remaining wiring portion is located at a higher level than the soldering portion; characterized in that the soldering portion (107a, 107b, 109a, 110a) and the wiring portion (107c, 109b, 110b) including the wall portion (107j, 109g) are integrally fixed to the housing, the wall portion (107j, 109g) extending along a step of the housing. wherein the metal wiring plate comprises a soldering portion (107a, 107b, 109a, 110a) to which an electronic device (101, 102) is soldered; and a wiring portion (107c, 109b, 110b) extending from the soldering portion and configured to electrically connect the electronic device to an other device, wherein the wiring portion includes a wall portion (107j, 109g) located adjacent to the soldering portion and configured to prevent melted solder applied to the soldering portion from spreading to areas outside the soldering portion; and the wall portion extends upward from the soldering portion in such manner that the remaining wiring portion is located at a higher level than the soldering portion; characterized in that the soldering portion (107a, 107b, 109a, 110a) and the wiring portion (107c, 109b, 110b) including the wall portion (107j, 109g) are integrally fixed to the housing, the wall portion (107j, 109g) extending along a step of the housing.
A gravitational liquid-splitting device characterized in that the gravitational liquid-splitting device comprises: a funnel having an inner space and a bottom opening connected to the inner space; a dispensing valve mounted to the funnel and configured to close or open the bottom opening of the funnel; a liquid-splitting part connected to a bottom of the funnel and having: an input channel formed in the liquid-splitting part and extending upward and downward; an upper end of the input channel forming an input opening on a top of the liquid-splitting part and connected to the bottom opening of the funnel; and two output channels formed in the liquid-splitting part; each of the output channels having a first end and a second end; the first end connected to a lower end of the input channel; the second end extending inclinedly downward and connected to an exterior of the liquid-splitting part; and a stirring assembly having a funnel cover detachably covering an upper opening of the funnel; and a stirrer connected to the funnel cover and configured to stir liquid in the funnel. a funnel having an inner space and a bottom opening connected to the inner space; a dispensing valve mounted to the funnel and configured to close or open the bottom opening of the funnel; a liquid-splitting part connected to a bottom of the funnel and having: an input channel formed in the liquid-splitting part and extending upward and downward; an upper end of the input channel forming an input opening on a top of the liquid-splitting part and connected to the bottom opening of the funnel; and two output channels formed in the liquid-splitting part; each of the output channels having a first end and a second end; the first end connected to a lower end of the input channel; the second end extending inclinedly downward and connected to an exterior of the liquid-splitting part; and an input channel formed in the liquid-splitting part and extending upward and downward; an upper end of the input channel forming an input opening on a top of the liquid-splitting part and connected to the bottom opening of the funnel; and two output channels formed in the liquid-splitting part; each of the output channels having a first end and a second end; the first end connected to a lower end of the input channel; the second end extending inclinedly downward and connected to an exterior of the liquid-splitting part; and a stirring assembly having a funnel cover detachably covering an upper opening of the funnel; and a stirrer connected to the funnel cover and configured to stir liquid in the funnel. a funnel cover detachably covering an upper opening of the funnel; and a stirrer connected to the funnel cover and configured to stir liquid in the funnel.
Separation device for separating granular material as it is pneumatically fed into a metering device of a seed drill, comprising: - a separation chamber having an air inlet for supply air loaded with the granular material, having a material outlet for the material separated from the supply air, and having an air outlet for exhaust air resulting after separation of the material; and - a filter screen which is arranged in the separation chamber and is designed to retain the material and to allow the supply air to pass through, characterized in that the filter screen is integrated into a filter cartridge which can be inserted into the separation device through the air outlet, and the filter screen is tubular and/or in an elongate basket shape and, when the filter cartridge is inserted, is arranged in a horizontal orientation above the material outlet. - a separation chamber having an air inlet for supply air loaded with the granular material, having a material outlet for the material separated from the supply air, and having an air outlet for exhaust air resulting after separation of the material; and - a filter screen which is arranged in the separation chamber and is designed to retain the material and to allow the supply air to pass through,
A connection initialization method for a long term evolution LTE network system, the LTE network system comprising an eNB, a first relay node RN and a second RN, the eNB connecting with a mobility management entity MME, the first RN connecting with the eNB, the second RN connecting with the eNB via the first RN, the eNB pre-allocating a first identification group and a second identification group to the first RN and the second RN respectively, the connection initialization method being characterized by comprising the following steps: (a) enabling the second RN to receive an attached request from a user equipment; (b) enabling the second RN to select an eNB-UE-S1AP identification EID from the second identification group and to assign the EID to a control-plane connection of the user equipment after step (a); (c) enabling the first RN to receive an initial message with the EID transmitted from the second RN; (d) enabling the first RN to transmit the initial message with the EID to the eNB; (e) enabling the eNB to transmit the initial message with the EID to the MME; (f) enabling the eNB to receive an initial response with a first MME-UE-S1AP identification MID from the MME after step (e), wherein the first MID is assigned to the control-plane connection of the user equipment by the MME; (g) enabling the eNB to convert the first MID into a second MID; (h) enabling the eNB to transmit the initial response with the second MID to the second RN via the first RN. (a) enabling the second RN to receive an attached request from a user equipment; (b) enabling the second RN to select an eNB-UE-S1AP identification EID from the second identification group and to assign the EID to a control-plane connection of the user equipment after step (a); (c) enabling the first RN to receive an initial message with the EID transmitted from the second RN; (d) enabling the first RN to transmit the initial message with the EID to the eNB; (e) enabling the eNB to transmit the initial message with the EID to the MME; (f) enabling the eNB to receive an initial response with a first MME-UE-S1AP identification MID from the MME after step (e), wherein the first MID is assigned to the control-plane connection of the user equipment by the MME; (g) enabling the eNB to convert the first MID into a second MID; (h) enabling the eNB to transmit the initial response with the second MID to the second RN via the first RN.
Lock holder for a locking device, particularly a locking device for a motor vehicle, comprising • at least one locking bolt, • a light source (27, 31), • one or no fastener, whereby • the locking bolt interacts with the locking device in such a manner that a relative movement can be prevented between a component connected to the lock holder and a component connected to the locking device, characterized by the fact that • the locking bolt and/or the fastener can be fully illuminated by the light source (27, 31), so that a corona lighting can be achieved. • at least one locking bolt, • a light source (27, 31), • one or no fastener, whereby • the locking bolt interacts with the locking device in such a manner that a relative movement can be prevented between a component connected to the lock holder and a component connected to the locking device, • the locking bolt and/or the fastener can be fully illuminated by the light source (27, 31), so that a corona lighting can be achieved.
Filter system having a liquid filter and a pipe connector; the liquid filter comprising a filter housing and a cover which closes the open side of the filter housing, and a hollow-cylindrical filter element which is inserted into the filter housing and features end discs (5, 6) on the front faces, wherein a flow opening is realized in one end disc, wherein a radially outward directed collar is disposed on the cover of the filter housing or on a component of the liquid filter connected to the cover on the exterior side of the cover and axially spaced therefrom, which collar forms an axial stop for the positive fitting fastening of the pipe connector communicating with the flow opening; the pipe connector having a connecting section for positive connection to the cover or to the component connected to the cover, wherein, in the connected state, the pipe connector communicates with the flow opening which is realized in the end disc of the hollow-cylindrical filter element, wherein the connecting section axially overlaps the collar, wherein, for producing the positive connection, a radially insertable latch is inserted into a form-fitting pocket formed axially between the radially directed collar and the connecting section on the pipe connector, wherein the latch is transferable into the form-fitting position transversely to the axial direction.
A method for controlling an unmanned aerial vehicle in response to an in-flight contingency, comprising: performing operations by a computer system onboard the unmanned aerial vehicle, including: (a) determining whether a current flight path of the unmanned aerial vehicle should be changed; (b) determining a different flight path of the unmanned aerial vehicle which satisfies signal reception constraints in response to a determination that the current flight path should be changed, wherein step (b) comprises using an RF environment model and a geometry engine to determine a different location for the unmanned aerial vehicle to fly to, said different location being calculated to reduce effects of jamming; and (c) controlling the unmanned aerial vehicle to fly said different flight path; wherein the method further comprises updating said RF environment model if connectivity to the operator is restored due to said different location. performing operations by a computer system onboard the unmanned aerial vehicle, including: (a) determining whether a current flight path of the unmanned aerial vehicle should be changed; (b) determining a different flight path of the unmanned aerial vehicle which satisfies signal reception constraints in response to a determination that the current flight path should be changed, wherein step (b) comprises using an RF environment model and a geometry engine to determine a different location for the unmanned aerial vehicle to fly to, said different location being calculated to reduce effects of jamming; and (c) controlling the unmanned aerial vehicle to fly said different flight path; (a) determining whether a current flight path of the unmanned aerial vehicle should be changed; (b) determining a different flight path of the unmanned aerial vehicle which satisfies signal reception constraints in response to a determination that the current flight path should be changed, wherein step (b) comprises using an RF environment model and a geometry engine to determine a different location for the unmanned aerial vehicle to fly to, said different location being calculated to reduce effects of jamming; and (c) controlling the unmanned aerial vehicle to fly said different flight path; wherein the method further comprises updating said RF environment model if connectivity to the operator is restored due to said different location.
Method for gluing a magnet to the surface of, or into a slot in, a rotor or stator of an electric motor or a generator, wherein i) the area or areas of the magnet to be glued is/are precoated with an adhesive which is not fluid at 22°C and which does not cure without an activation step, ii) the magnet which is coated with adhesive is optionally temporarily stored and/or transported from the location where the coating is carried out to the location where the gluing on or gluing in takes place, iii) the magnet is placed with the area that is coated with adhesive on the surface of the rotor or stator and fixed, or the magnet is inserted into a slot in the rotor or stator in such a way that at least one area which is coated with adhesive is situated opposite from an inner wall of the slot, and iv) the adhesive is activated by heating or by high-energy radiation so that the adhesive cures, characterized in that an adhesive is used which contains a) at least one reactive epoxy prepolymer, b) at least one latent hardener for epoxides, and c) one or more elastomers selected from A) block copolymers having thermoplastic polymer blocks selected from those block copolymers which contain a first polymer block having a glass transition temperature of below 15°C and a second polymer block having a glass transition temperature of above 25°C, and B) block copolymers and thermoplastic polyurethanes. i) the area or areas of the magnet to be glued is/are precoated with an adhesive which is not fluid at 22°C and which does not cure without an activation step, ii) the magnet which is coated with adhesive is optionally temporarily stored and/or transported from the location where the coating is carried out to the location where the gluing on or gluing in takes place, iii) the magnet is placed with the area that is coated with adhesive on the surface of the rotor or stator and fixed, or the magnet is inserted into a slot in the rotor or stator in such a way that at least one area which is coated with adhesive is situated opposite from an inner wall of the slot, and iv) the adhesive is activated by heating or by high-energy radiation so that the adhesive cures, a) at least one reactive epoxy prepolymer, b) at least one latent hardener for epoxides, and c) one or more elastomers selected from A) block copolymers having thermoplastic polymer blocks selected from those block copolymers which contain a first polymer block having a glass transition temperature of below 15°C and a second polymer block having a glass transition temperature of above 25°C, and B) block copolymers and thermoplastic polyurethanes. A) block copolymers having thermoplastic polymer blocks selected from those block copolymers which contain a first polymer block having a glass transition temperature of below 15°C and a second polymer block having a glass transition temperature of above 25°C, and B) block copolymers and thermoplastic polyurethanes.
Drive unit configured to drive an electric bicycle or another electromotively operated two-wheeled vehicle, having an electric machine, a transmission and a housing which completely encloses the electric machine and the transmission, wherein the drive unit comprises a locking mechanism (60-60", 62-62") which is also completely enclosed by the housing, wherein the locking mechanism comprises an electric actuator (60-60") and a locking element (62-62") which is connected thereto, is driven by the actuator and is configured to be moved into engagement with a component of the electric machine or of the transmission or of some other drive component within the housing and as a result to lock said component, characterized in that in the currentless state the actuator (60-60") is configured to provide the locking element (62-62") in engagement with the component of the electric machine or of the transmission or of the other drive components, and is also configured to output a signal which represents an actuating state of the locking element (62-62"), and the drive unit comprises an actuator actuation electronics system which is connected to the actuator (60-60", 60"') and which has a code verification unit which has an electric connection or a radio receiver or IR receiver for inputting a code signal, wherein the actuator actuation electronics system and the code verification unit are completely enclosed by the housing.
Process for producing and purifying 2,3,3,3-tetrafluoropropene which is performed using a starting composition comprising at least one compound of formula CX 2 -CX m -CH m XY in which X and Y independently represent a hydrogen, fluorine or chlorine atom and m = 0 or 1; and/or fluorination, in the presence of a catalyst, of a compound of formula (CX n Y 3-n)CH p X 1-p CH m X 2-m in which X is, independently of each other, Cl, F, I or Br; Y is, independently of each other, H, Cl, F, I or Br; n is 1, 2 or 3; and m is 0, 1 or 2; and p is 0 or 1; said process comprising the steps of: a) placing the starting composition in contact, in the presence of a catalyst, with HF to produce a composition A comprising HCl, part of the unreacted HF, 2,3,3,3-tetrafluoropropene, intermediate products B consisting of 2-chloro-3,3,3-trifluoropropene, 1,1,1,2,2-pentafluoropropane, and side products C consisting of E-1-chloro-3,3,3-trifluoro-1-propene, trans-1,3,3,3-tetrafluoro-1-propene and 1,1,1,3,3-pentafluoropropane; b) recovery of said composition A and purification, preferably distillation, thereof to form and recover a first stream, which is preferably gaseous, comprising HCl, 2,3,3,3-tetrafluoropropene, part of the intermediate products B and part of the side products C; and a stream, which is preferably liquid, L1 comprising part of the unreacted HF, part of the intermediate products B and part of the side products C; c) purification of said first stream to form a stream comprising a portion of said part of the intermediate products B and a portion of said part of the side products C and recycling thereof into step a). a) placing the starting composition in contact, in the presence of a catalyst, with HF to produce a composition A comprising HCl, part of the unreacted HF, 2,3,3,3-tetrafluoropropene, intermediate products B consisting of 2-chloro-3,3,3-trifluoropropene, 1,1,1,2,2-pentafluoropropane, and side products C consisting of E-1-chloro-3,3,3-trifluoro-1-propene, trans-1,3,3,3-tetrafluoro-1-propene and 1,1,1,3,3-pentafluoropropane; b) recovery of said composition A and purification, preferably distillation, thereof to form and recover a first stream, which is preferably gaseous, comprising HCl, 2,3,3,3-tetrafluoropropene, part of the intermediate products B and part of the side products C; and a stream, which is preferably liquid, L1 comprising part of the unreacted HF, part of the intermediate products B and part of the side products C; c) purification of said first stream to form a stream comprising a portion of said part of the intermediate products B and a portion of said part of the side products C and recycling thereof into step a).
A security chip, comprising: a first dielectric layer; a second dielectric layer disposed on the first dielectric layer, wherein the first dielectric layer is an optically denser medium relative to the second dielectric layer, and a roughness of an upper surface of the first dielectric layer is greater than or equal to a preset threshold, so that laser light entering the second dielectric layer from the first dielectric layer is able to be totally reflected and/or scattered; and a semiconductor chip disposed on the second dielectric layer. a first dielectric layer; a second dielectric layer disposed on the first dielectric layer, wherein the first dielectric layer is an optically denser medium relative to the second dielectric layer, and a roughness of an upper surface of the first dielectric layer is greater than or equal to a preset threshold, so that laser light entering the second dielectric layer from the first dielectric layer is able to be totally reflected and/or scattered; and a semiconductor chip disposed on the second dielectric layer.
A deployment device (10, 20, 30, 40, 50, 60, 70) to be positioned on a supporting structure, comprising: • a first instrument and a second instrument, • a deployment mechanism comprising: ∘ a main arm connectable to a face of the supporting structure at a first attachment point on the one hand and to the first instrument on the other hand, the second instrument being connected to the main arm, ∘ a main motor configured to actuate the main arm relative to the face, ∘ a secondary motor configured to actuate the second instrument relative to the main arm, said deployment device being characterised in that the two instruments (11, 12) are able to pass from a stored configuration, one on the other on the face of the supporting structure, to a deployed configuration in which the two instruments (11, 12) are remote from one another and from the supporting structure, and/or vice versa, through rotational movement of the second instrument by the secondary motor. • a first instrument and a second instrument, • a deployment mechanism comprising: ∘ a main arm connectable to a face of the supporting structure at a first attachment point on the one hand and to the first instrument on the other hand, the second instrument being connected to the main arm, ∘ a main motor configured to actuate the main arm relative to the face, ∘ a secondary motor configured to actuate the second instrument relative to the main arm, ∘ a main arm connectable to a face of the supporting structure at a first attachment point on the one hand and to the first instrument on the other hand, the second instrument being connected to the main arm, ∘ a main motor configured to actuate the main arm relative to the face, ∘ a secondary motor configured to actuate the second instrument relative to the main arm,
The non-therapeutic use of L-carnitine or a salt of L-carnitine for reducing or preventing mental fatigue and/or for improving cognitive function of a human individual having an age below 60, wherein the L-carnitine or salt of L-carnitine is not administered in combination with another agent, which is effective in reducing or preventing fatigue or for improving cognitive functions in an animal, is not administered in combination with organic acids, and is administered in an amount corresponding to an equivalent amount of L-carnitine between 250 and 750 mg.
A preparation method of an oxygen-selective adsorbent selectively adsorbing oxygen in the air, the preparation method comprising: (a) preparing BaMg(CO 3) 2 particles or particles in which MgCO 3 or Mg 2 are attached to the outside of BaMg(CO 3) 2; and either (b) (i) sintering the particles at a temperature of between 900 to 1200°C under oxygen atmosphere; or (b) (ii) sintering the particles at a temperature of between 700 to 800°C under hydrogen atmosphere. (a) preparing BaMg(CO 3) 2 particles or particles in which MgCO 3 or Mg 2 are attached to the outside of BaMg(CO 3) 2; and either (b) (i) sintering the particles at a temperature of between 900 to 1200°C under oxygen atmosphere; or (b) (ii) sintering the particles at a temperature of between 700 to 800°C under hydrogen atmosphere.