mhurhangee/patent-ind-claim-en huggingface dataset:
An aircraft engine nacelle comprising an aircraft cowl and a power door opening system for the aircraft cowl , whereby the power door opening system comprises: a first control switch , in use, electrically connected to a power source , the first control switch being operable to transition between a first position and a second position; a solenoid valve electrically connected to the control switch and, in use, in fluid communication with an hydraulic actuator and a fluid reservoir , the solenoid valve being selectively operable in a first mode to direct fluid from the fluid reservoir to the hydraulic actuator and in second mode to direct fluid from the hydraulic actuator to the fluid reservoir , the hydraulic actuator , in use, being mechanically connected to the aircraft cowl ; characterized in that the power door opening system comprises: an electrical system controller electrically connected to the solenoid valve and configured to detect that current is drawn in the solenoid valve and, upon detecting that the current is drawn in the solenoid valve , cause an electric motor to be powered, the electric motor being connected to an hydraulic pump , the hydraulic pump being in fluid communication with the solenoid valve and the fluid reservoir . a first control switch , in use, electrically connected to a power source , the first control switch being operable to transition between a first position and a second position; a solenoid valve electrically connected to the control switch and, in use, in fluid communication with an hydraulic actuator and a fluid reservoir , the solenoid valve being selectively operable in a first mode to direct fluid from the fluid reservoir to the hydraulic actuator and in second mode to direct fluid from the hydraulic actuator to the fluid reservoir , the hydraulic actuator , in use, being mechanically connected to the aircraft cowl ;
A machine tool with active inertial damping, comprising: - a cantilevered ram , the ram having longitudinal walls , - a head that is arranged on a free end of the ram , - actuation means for actuating the head that are arranged on one of the longitudinal walls of the ram , and - damping means in the vicinity of the cutting point and configured to generate at least one force (F1, F2) in one main bending direction (D1, D2) of the ram . characterised in that , the damping means are arranged on a partial section of the longitudinal wall of the ram wherein the actuation means are arranged, the partial section being located between the actuation means and the free end of the ram in which the head is arranged. - a cantilevered ram , the ram having longitudinal walls , - a head that is arranged on a free end of the ram , - actuation means for actuating the head that are arranged on one of the longitudinal walls of the ram , and - damping means in the vicinity of the cutting point and configured to generate at least one force (F1, F2) in one main bending direction (D1, D2) of the ram .
A robotic work tool system comprising a charging station , a boundary wire arranged to enclose a work area and a robotic work tool configured to work within said work area , said work area being divided into at least a first section and a second section , wherein the first and the second sections are ordered in a work order indicating in which order they should be serviced, the robotic work tool comprising a controller for controlling the operation of the robotic work tool to cause the robotic work tool to move along a trajectory, the robotic work tool being configured to: determine that a section boundary is encountered, and if so, determine whether a switch section signal has been received, and if so, determine that the section boundary is between the first section and the second section , and if not so, change the trajectory of the robotic work tool to cause the robotic work tool to remain within the first section , wherein the robotic work tool is further configured to determine that a boundary wire is encountered, and if so, determine if the switch section signal has been received, and if so, follow the boundary wire out of the first section in which the robotic work tool is currently operating into the second section , and wherein the robotic work tool is further configured to determine that the switch section signal has been received when an associated section time has been exceeded. determine that a section boundary is encountered, and if so, determine whether a switch section signal has been received, and if so, determine that the section boundary is between the first section and the second section , and if not so, change the trajectory of the robotic work tool to cause the robotic work tool to remain within the first section , wherein the robotic work tool is further configured to determine that a boundary wire is encountered, and if so, determine if the switch section signal has been received, and if so, follow the boundary wire out of the first section in which the robotic work tool is currently operating into the second section , and wherein the robotic work tool is further configured to determine that the switch section signal has been received when an associated section time has been exceeded.
Holding means for a conveying device for conveying thin flat substrates, in particular circuit boards (30; 130; 230; 330), through a treatment tank , said holding means being constructed as holding clips (22; 122; 222; 322) for a fixed connection to a thin flat substrate and for connecting or mechanically coupling together two thin flat substrates successive in the conveying direction (T) of said thin flat substrates, and said holding clips (22; 122; 222; 322) projecting on both sides beyond the width of the thin flat substrates transversely to the conveying direction (T) and being constructed for cooperating with a conveying unit of the conveying device for conveying said thin flat substrates through said treatment tank , characterized in that the holding clips (22; 122; 222; 322) are constructed in at least two-part holding clips with a lower holding part (32; 132; 232; 332) and an upper holding part (40; 140; 240; 340), the holding parts being constructed for fastening a thin flat substrate between them.
A pneumatic tire comprising a tread portion having an outboard tread edge (Te1) to be positioned away from the center of a vehicle body and an inboard tread edge (Te2) to be positioned close to the center of the vehicle body, and provided with main grooves extending continuously in the tire circumferential direction, the main grooves including an outboard shoulder main groove and an outboard crown main groove between which an outboard middle land region is defined, the outboard middle land region provided with outboard middle transverse grooves each comprising a shallow groove section and a deep groove section , the outboard middle transverse grooves including first outboard middle transverse grooves wherein their deep groove sections are is disposed on the outboard shoulder main groove side and their shallow groove sections are disposed on the outboard crown main groove side, and second outboard middle transverse grooves wherein their deep groove sections are disposed on the outboard crown main groove side and their shallow groove sections are disposed on the outboard shoulder main groove side, and the first outboard middle transverse grooves and the second outboard middle transverse grooves arranged alternately in the tire circumferential direction, wherein each of the outboard middle transverse grooves has one end connected to the outboard shoulder main groove and the other end connected to the outboard crown main groove , characterized in that the tread portion has an outboard shoulder land region which is defined on the axially outside of the outboard shoulder main groove and provided with outboard shoulder transverse grooves extending axially inwardly from the outboard tread edge (Te1), the outboard shoulder transverse grooves include first outboard shoulder transverse grooves whose axially inner ends are connected to the outboard shoulder main groove , the first outboard shoulder transverse grooves are aligned with the deep groove sections of the first outboard middle transverse grooves so as to be smoothly continuous therewith through the outboard shoulder main groove .
Method for embossing structures having dimensions in the micrometres or nanometres range into a lacquer layer composed of a lacquer, wherein the lacquer layer is applied to one side of a film web and is curable by means of ultraviolet radiation, wherein the film web , in the conveying direction , firstly by the side on which the not yet cured lacquer layer is situated, is pressed against an embossing cylinder , on the surface of which the structures in the micrometres or nanometres range that are to be embossed are situated, by an impression cylinder in such a way that the structures in the micrometres or nanometres range are impressed into the lacquer layer , and the lacquer layer is subsequently cured by ultraviolet radiation from a source for ultraviolet radiation, characterized in that the film web is guided to the embossing cylinder from above or at least obliquely from above, such that some of the lacquer of the not yet cured lacquer layer accumulates in the conveying direction directly before the location at which the lacquer layer comes into contact with the embossing cylinder , thus resulting in a larger wetted area on the surface of the embossing cylinder , a cause of the larger wetted area on the surface of the embossing cylinder being that the gravitational force guides the lacquer layer in addition to the movement direction of the film web to the location at which the film web comes into contact with the embossing cylinder.
A TiAl-based alloy consisting of: Al: 41 to 43 at%; Fe: 0 to 2.5 at%; Ni: 0 to 2.5 at%; Mo: 0 to 2.0 at%; W: 0 to 2.0 at%; Cr: 0 to 4.5 at%; Mn: 0 to 5.5 at%; V: 0 to 10 at%; Nb: 0 to 10 at%; C: 0.3 to 0.7 at%; and the remainder consisting of Ti and inevitable impurities, wherein the alloy element parameter P obtained by Equation below is in a composition range of 1.1 to 1.9, and the TiAl-based alloy has a microstructure consisting of a γ phase of 5 to 30 area %, a β phase of 0.5 to 4 area %, and a lamellar structure occupying the remaining part, P = 41.5 − Al / 3 + Fe + Ni + Mo + W + 0.5 Cr + 0.4 Mn + 0.2 V + 0.2 Nb − C Al: 41 to 43 at%; Fe: 0 to 2.5 at%; Ni: 0 to 2.5 at%; Mo: 0 to 2.0 at%; W: 0 to 2.0 at%; Cr: 0 to 4.5 at%; Mn: 0 to 5.5 at%; V: 0 to 10 at%; Nb: 0 to 10 at%; C: 0.3 to 0.7 at%; and the remainder consisting of Ti and inevitable impurities, wherein the alloy element parameter P obtained by Equation below is in a composition range of 1.1 to 1.9, and the TiAl-based alloy has a microstructure consisting of a γ phase of 5 to 30 area %, a β phase of 0.5 to 4 area %, and a lamellar structure occupying the remaining part, P = 41.5 − Al / 3 + Fe + Ni + Mo + W + 0.5 Cr + 0.4 Mn + 0.2 V + 0.2 Nb − C
A radically curable compound represented by the general formula below where R 1 , R 2 , and R 3 each independently represent an alkyl group having 1 to 8 carbon atoms; m and n each independently represent an integer of 1 to 4; p represents an integer of 0 to 4; t is 1 or 2; characterized in that each of X, Y, and Z represents an acryloyloxy group or a methacryloyloxy group.
Actuator for operating an actuating element comprising an actuating element fastened to a force transmission member , an opening spring made of a shape memory alloy, the spring being supported on the force transmission member and acting on the force transmission element in a first direction, the spring force depending on the temperature of the opening spring , and a return spring abutting on the force transmission member and acting on the force transmission member in a direction opposite to the first direction, characterized in that a closing spring made of a shape memory alloy is supported on the force transmission member and acts on the force transmission member in a direction opposite to the first direction, wherein the structural transformation temperature of the closing spring is lower than that of the opening spring .
A method of transmitting encapsulated media, the method comprising: receiving a first request to establish a tunnel with a stream based transport layer , the first request comprising a tag; receiving a second request to establish the tunnel with a datagram based transport layer , the second request comprising the tag; establishing the tunnel with the stream based transport layer and receiving the encapsulated media over the stream based transport layer ; establishing the datagram based transport layer for the tunnel in addition to the stream based transport layer and receiving the encapsulated media over the datagram based transport layer; and releasing the stream based transport layer. receiving a first request to establish a tunnel with a stream based transport layer , the first request comprising a tag; receiving a second request to establish the tunnel with a datagram based transport layer , the second request comprising the tag; establishing the tunnel with the stream based transport layer and receiving the encapsulated media over the stream based transport layer ; establishing the datagram based transport layer for the tunnel in addition to the stream based transport layer and receiving the encapsulated media over the datagram based transport layer; and releasing the stream based transport layer.
A two-component solventless adhesive composition, comprising: an isocyanate component comprising an isocyanate blend; and a polyol component comprising: an amine-initiated polyol comprising two or more primary hydroxyl groups and a backbone incorporating tertiary amines, wherein the amine-initiated polyol comprises a functionality of from 2 to 12, a hydroxyl number of from 5 to 1,830, and a viscosity at 40°C of from 500 to 20,000 mPa-s; and a silicone-based additive. an isocyanate component comprising an isocyanate blend; and a polyol component comprising: an amine-initiated polyol comprising two or more primary hydroxyl groups and a backbone incorporating tertiary amines, wherein the amine-initiated polyol comprises a functionality of from 2 to 12, a hydroxyl number of from 5 to 1,830, and a viscosity at 40°C of from 500 to 20,000 mPa-s; and a silicone-based additive. an amine-initiated polyol comprising two or more primary hydroxyl groups and a backbone incorporating tertiary amines, wherein the amine-initiated polyol comprises a functionality of from 2 to 12, a hydroxyl number of from 5 to 1,830, and a viscosity at 40°C of from 500 to 20,000 mPa-s; and a silicone-based additive.
A dishwasher comprising a washing chamber with a sump and a hydraulic arrangement comprising; - the sump , - a circulation pump , - one or more spray arrangements (11.1, 11.2), and - a washing liquid storage tank , wherein the circulation pump comprises an inlet and a first outlet , the inlet being connected to the sump and the first outlet being connected to the one or more spray arrangements (11.1, 11.2), wherein the circulation pump is arranged to pump washing liquid from the sump to the one or more spray arrangements (11.1, 11.2) via the first outlet , wherein the one or more spray arrangements (11.1, 11.2) are arranged to spray washing liquid into the washing chamber , wherein the circulation pump is provided with a second outlet connected to the washing liquid storage tank wherein the circulation pump is further arranged to pump washing liquid from the sump to the washing liquid storage tank via the second outlet . characterized in that the hydraulic arrangement further comprises a first conduit wherein the second outlet is connected to the washing liquid storage tank via the first conduit wherein said first conduit is provided with a flow regulating valve having at least an open state and a closed state. - the sump , - a circulation pump , - one or more spray arrangements (11.1, 11.2), and - a washing liquid storage tank ,
A thin film transistor, TFT, comprising: a source and a drain ; a channel formed between the source and the drain; a gate formed on a substrate to correspond to the channel . a gate insulating layer formed between the gate and the channel ; a floating channel electrically connected and in contact with the channel , the floating channel being over the channel and spaced apart from the source and the drain so that it does not contact the source and drain, and wherein the resistance of the floating channel is less than a resistance of the channel when the channel is turned on; and an insulating layer formed on the floating channel, and characterised in that at least one of the source and the drain contacts end portions of the channel and the insulating layer , and in that a distance between the floating channel and the source and/or between the floating channel and the drain is equal to a thickness of the insulating layer. a source and a drain ; a channel formed between the source and the drain; a gate formed on a substrate to correspond to the channel . a gate insulating layer formed between the gate and the channel ; a floating channel electrically connected and in contact with the channel , the floating channel being over the channel and spaced apart from the source and the drain so that it does not contact the source and drain, and wherein the resistance of the floating channel is less than a resistance of the channel when the channel is turned on; and an insulating layer formed on the floating channel, and characterised in that at least one of the source and the drain contacts end portions of the channel and the insulating layer , and in that a distance between the floating channel and the source and/or between the floating channel and the drain is equal to a thickness of the insulating layer.
Bogie of a rail vehicle with: - at least one wheelset with two opposing rigidly interconnected wheels , - a wheelset bearing of the wheelset within the two wheels , - a traction motor , which drives the wheelset directly, wherein the traction motor is a permanently excited synchronous motor with liquid cooling , characterised by - an aerodynamic enclosure of the bogie , wherein the enclosure is formed as a full enclosure, which has shell-shaped enclosure elements on the sides, in the directions of travel and on the underside of the bogie , wherein the enclosure of the underside of the bogie has recesses for the wheels , - wherein the liquid cooling is designed as a liquid cooling jacket, and - wherein the traction motor has a closed internal cooling circuit , which can be recooled at the liquid cooling jacket . - at least one wheelset with two opposing rigidly interconnected wheels , - a wheelset bearing of the wheelset within the two wheels , - a traction motor , which drives the wheelset directly, wherein the traction motor is a permanently excited synchronous motor with liquid cooling , characterised by - an aerodynamic enclosure of the bogie , wherein the enclosure is formed as a full enclosure, which has shell-shaped enclosure elements on the sides, in the directions of travel and on the underside of the bogie , wherein the enclosure of the underside of the bogie has recesses for the wheels , - wherein the liquid cooling is designed as a liquid cooling jacket, and - wherein the traction motor has a closed internal cooling circuit , which can be recooled at the liquid cooling jacket .
A method for triggering inter radio access technology measurements from a first wide-ranging radio access technology to a second radio access technology with limited coverage, adapting a parameter used as trigger signal at a first base station of a first radio access network of a first type of radio access technology relating to the first wide-ranging radio access technology, to initiate at a user equipment , which is served by the first base station , measurements of a signal quality of signals being received from a second base station of a second radio access network of a second type of radio access technology relating to the second radio access technology with limited coverage, the method comprising • measuring by a user equipment , which is served by the second base station , the signal quality of signals being received from the first base station , • reporting a signal being indicative for the measured signal quality from the user equipment to a network entity , wherein reporting the signal comprises transmitting a first signal being indicative for the measured signal quality from the user equipment to the second base station , and transmitting a second signal being indicative for the measured signal quality from the second base station to the network entity , and • adapting, by the network entity , the parameter based on the measured signal quality, wherein the parameter is used as trigger signal at the first base station to initiate further measurements at the user equipment , which is served by the first base station after being handed over to the first base station , of a further signal quality of signals being received from the second base station , wherein measuring the further signal quality is carried out before the user equipment which is served by the first base station is handed over to the second base station , wherein the network entity is the first base station or a common central unit. • measuring by a user equipment , which is served by the second base station , the signal quality of signals being received from the first base station , • reporting a signal being indicative for the measured signal quality from the user equipment to a network entity , wherein reporting the signal comprises transmitting a first signal being indicative for the measured signal quality from the user equipment to the second base station , and transmitting a second signal being indicative for the measured signal quality from the second base station to the network entity , and • adapting, by the network entity , the parameter based on the measured signal quality, wherein the parameter is used as trigger signal at the first base station to initiate further measurements at the user equipment , which is served by the first base station after being handed over to the first base station , of a further signal quality of signals being received from the second base station ,