mhurhangee/ep-ind-claims huggingface dataset:
Semitrailer provided with an independent wheel suspension for a semitrailer, the independent wheel suspension connecting a wheel with a central element of a chassis of the semitrailer, the wheel suspension comprising, a lower and an upper link arm, that each at one end are pivotingly connected to the central element of the chassis in two different positions and at the other, opposing end are pivotingly connected to an upright that is connected to a wheel hub, wherein the wheel suspension connects the wheel hub to the central element of the chassis, moveable in at least a vertical direction, and between the wheel hub and the central element of the chassis a shock absorber and a spring element are mounted, characterized in that, the spring element comprises at least one air spring that is placed outside the lower and upper support arms and that to the upright further a support element is attached, wherein the support element is also connected to one end of each of the at least one air spring.
A method for allocating a tracking area, TA, list in an Evolved Packet System, EPS, comprising: determining a TA currently visited by a user equipment, UE; and allocating a TA list to the UE according to preset parameters and a history record of motion trace of UEs located in the TA currently visited by the UE; wherein the TA list comprises multiple continuous adjacent TAs of the motion trace to which the UE more probably moves than to other TAs based on the history record, wherein the preset parameters are at least one of: an upper threshold of the number of the multiple continuous adjacent TAs in the TA list and a threshold of a sum of probabilities of the UEs moving from the TA currently visited by the UE to all adjacent TAs in the TA list. determining a TA currently visited by a user equipment, UE; and allocating a TA list to the UE according to preset parameters and a history record of motion trace of UEs located in the TA currently visited by the UE; wherein the TA list comprises multiple continuous adjacent TAs of the motion trace to which the UE more probably moves than to other TAs based on the history record, wherein the preset parameters are at least one of: an upper threshold of the number of the multiple continuous adjacent TAs in the TA list and a threshold of a sum of probabilities of the UEs moving from the TA currently visited by the UE to all adjacent TAs in the TA list. an upper threshold of the number of the multiple continuous adjacent TAs in the TA list and a threshold of a sum of probabilities of the UEs moving from the TA currently visited by the UE to all adjacent TAs in the TA list.
A solvent separation method of a mixture of ethanol and water comprising: 1) introducing, into a first flash vessel, a fluid which includes carbon dioxide, water and a solvent and has passed through a supercritical extractor; 2) introducing, into a second flash vessel, the fluid which has passed through the first flash vessel; and 3) discharging and recovering the carbon dioxide, water and the solvent which have passed through the second flash vessel, respectively, wherein the pressure of the first flash vessel is 40-100 bar; wherein the temperatures of the first flash vessel and the second flash vessel are maintained at 10-30°C; wherein the first flash vessel and second flash vessel are arranged in series, the pressure condition of the carbon dioxide and solvent is changed stepwise; wherein the solvent is ethanol; characterized in that the pressure of the second flash vessel is 10-30 bar. 1) introducing, into a first flash vessel, a fluid which includes carbon dioxide, water and a solvent and has passed through a supercritical extractor; 2) introducing, into a second flash vessel, the fluid which has passed through the first flash vessel; and 3) discharging and recovering the carbon dioxide, water and the solvent which have passed through the second flash vessel, respectively, wherein the pressure of the first flash vessel is 40-100 bar; wherein the temperatures of the first flash vessel and the second flash vessel are maintained at 10-30°C; wherein the first flash vessel and second flash vessel are arranged in series, the pressure condition of the carbon dioxide and solvent is changed stepwise; wherein the solvent is ethanol; characterized in that the pressure of the second flash vessel is 10-30 bar. wherein the pressure of the first flash vessel is 40-100 bar; wherein the temperatures of the first flash vessel and the second flash vessel are maintained at 10-30°C; wherein the first flash vessel and second flash vessel are arranged in series, the pressure condition of the carbon dioxide and solvent is changed stepwise; wherein the solvent is ethanol; characterized in that the pressure of the second flash vessel is 10-30 bar.
A fastener, comprising: a first member including a flange portion, and a leg portion extending from the flange portion, forming an insertion hole opening at the flange portion, divided around a shaft line, and formed with a guided portion in an inner circumferential portion of the insertion hole; and a second member having a guide portion from a vicinity of an end toward a base direction, and pressed into the insertion hole of the first member so as to contact the guide portion with the guided portion and to expand the leg portion, wherein the guide portion has a curved surface having a tangent angle changing relative to a shaft line at a contact point with the guided portion from an end side toward a base portion side, and an insertion force into the first member at each contact point is held approximately constant, characterized in that wherein when Young's modulus of the leg portion is presumed to be constant, and a frictional force at the contact point is presumed to be 0, and an opening volume of the leg portion at an arbitrary point on the curved surface is V and the tangent angle is θ, a relationship of V sin θ = constant is established at the arbitrary point on the curved surface. a first member including a flange portion, and a leg portion extending from the flange portion, forming an insertion hole opening at the flange portion, divided around a shaft line, and formed with a guided portion in an inner circumferential portion of the insertion hole; and a second member having a guide portion from a vicinity of an end toward a base direction, and pressed into the insertion hole of the first member so as to contact the guide portion with the guided portion and to expand the leg portion, wherein the guide portion has a curved surface having a tangent angle changing relative to a shaft line at a contact point with the guided portion from an end side toward a base portion side, and an insertion force into the first member at each contact point is held approximately constant, characterized in that wherein when Young's modulus of the leg portion is presumed to be constant, and a frictional force at the contact point is presumed to be 0, and an opening volume of the leg portion at an arbitrary point on the curved surface is V and the tangent angle is θ, a relationship of V sin θ = constant is established at the arbitrary point on the curved surface.
A method for chemically bonding a phenolic resin with a non-phenolic polymer, comprising: contacting a phenolic fatty acid compound with a non-phenolic polymer having a functional group reactive to a carboxylic acid group of a fatty acid, to react the carboxylic acid-reactive functional group of the non-phenolic polymer with the carboxylic acid group of the phenolic fatty acid compound, thereby attaching a hydroxy phenyl functional group to the non-phenolic polymer; and reacting the hydroxy phenyl functional group of the non-phenolic polymer with a phenolic resin or a phenolic crosslinker composition capable of forming a phenolic resin, to chemically bond the phenolic resin with the non-phenolic polymer. contacting a phenolic fatty acid compound with a non-phenolic polymer having a functional group reactive to a carboxylic acid group of a fatty acid, to react the carboxylic acid-reactive functional group of the non-phenolic polymer with the carboxylic acid group of the phenolic fatty acid compound, thereby attaching a hydroxy phenyl functional group to the non-phenolic polymer; and reacting the hydroxy phenyl functional group of the non-phenolic polymer with a phenolic resin or a phenolic crosslinker composition capable of forming a phenolic resin, to chemically bond the phenolic resin with the non-phenolic polymer.
A separator for separating a liquid-gas flow into a liquid and a compressed gas, the separator comprising: a housing having a cylindrical side wall and a longitudinal axis defining an inner space and adapted to contain the full pressure of the compressed gas, the housing including a liquid-gas inlet, a liquid outlet, and a gas outlet; a first stage separator positioned to receive the liquid-gas flow from the inlet, the first stage separator operable to separate a first portion of the liquid from the liquid-gas flow; a second stage separator including a swirl vane separator positioned to receive the liquid-gas flow from the first stage separator and operable to separate a second portion of the liquid from the liquid-gas flow; and a third stage separator positioned to receive the liquid-gas flow from the swirl vane separator and operable to separate a third portion of the liquid from the liquid-gas flow, wherein the first stage separator, the second stage separator, and the third stage separator are completely contained within the housing, characterised in that the liquid-gas inlet is angled downward with respect to the longitudinal axis and is substantially tangent to the cylindrical side wall. a housing having a cylindrical side wall and a longitudinal axis defining an inner space and adapted to contain the full pressure of the compressed gas, the housing including a liquid-gas inlet, a liquid outlet, and a gas outlet; a first stage separator positioned to receive the liquid-gas flow from the inlet, the first stage separator operable to separate a first portion of the liquid from the liquid-gas flow; a second stage separator including a swirl vane separator positioned to receive the liquid-gas flow from the first stage separator and operable to separate a second portion of the liquid from the liquid-gas flow; and a third stage separator positioned to receive the liquid-gas flow from the swirl vane separator and operable to separate a third portion of the liquid from the liquid-gas flow, wherein the first stage separator, the second stage separator, and the third stage separator are completely contained within the housing, characterised in that the liquid-gas inlet is angled downward with respect to the longitudinal axis and is substantially tangent to the cylindrical side wall.
A method for manufacturing synthetic leather having a skin layer on a base cloth, comprising steps of: (i) coating a mold-releasable substrate with a skin layer composition containing a natural dye and a polyurethane resin and drying the composition to form a skin layer; and (ii) laminating the skin layer on a base cloth;. wherein the dye is in the form of a dye powder or in both the forms of a dye extract and a dye powder so as to be mixed with the polyurethane resin in the step (i). (i) coating a mold-releasable substrate with a skin layer composition containing a natural dye and a polyurethane resin and drying the composition to form a skin layer; and (ii) laminating the skin layer on a base cloth;.
Cooling circuit, in particular for a casing for electrical equipment, comprising a first portion and a second portion, said first and second portions (10, 20) of the cooling circuit being complementary and respectively comprising recessed parts and protruding parts that are configured to fit into one another so as to form a circulation channel for a cooling fluid when assembled, said circulation channel being configured to generate a flow of cooling fluid extending over various levels successively arranged one after the other along said circulation channel, characterized by said recessed parts and said protruding parts being configured to fit into one another by virtue of a functional clearance that allows said recessed parts and said protruding parts to interlock, at least one of said first and second complementary circuit portions comprising at least one deflector (15, 25) configured to divert the cooling fluid away from said functional clearance.
A shovel comprising: a lower traveling body; an upper swiveling body that is mounted on the lower traveling body so as to be able to swivel; a traveling actuator that drives the lower traveling body; and a control device that is provided in the upper swiveling body, wherein the control device operates the traveling actuator so as to move the lower traveling body toward an intermediate target that is generated based on information about a target position. a lower traveling body; an upper swiveling body that is mounted on the lower traveling body so as to be able to swivel; a traveling actuator that drives the lower traveling body; and a control device that is provided in the upper swiveling body, wherein the control device operates the traveling actuator so as to move the lower traveling body toward an intermediate target that is generated based on information about a target position.
An electric vehicle battery attaching /detaching device comprising: a battery mounting unit formed on an electric vehicle to detachably mount a battery and provided with a connector pin module adapted to be lifted/lowered by a lifting/lowering means; a loader having a plurality of battery stands, each battery stand being adapted to detachably mount a fully-charged battery to be exchanged with the battery mounted on the battery mounting unit; and a battery attaching/detaching unit adapted to move along X-axis, Y-axis, and Z-axis between the battery mounting unit and the battery stand by means of a movement device, detach a battery mounted on the battery mounting unit or the battery stand, and exchange/mount the battery on the battery stand or the battery mounting unit, wherein the battery mounting unit is provided with the connector pin module for establishing an electric connection with a battery, characterized in that the battery mounting unit is adapted to lift the connector pin module after the battery is seated on the battery mounting unit. a battery mounting unit formed on an electric vehicle to detachably mount a battery and provided with a connector pin module adapted to be lifted/lowered by a lifting/lowering means; a loader having a plurality of battery stands, each battery stand being adapted to detachably mount a fully-charged battery to be exchanged with the battery mounted on the battery mounting unit; and a battery attaching/detaching unit adapted to move along X-axis, Y-axis, and Z-axis between the battery mounting unit and the battery stand by means of a movement device, detach a battery mounted on the battery mounting unit or the battery stand, and exchange/mount the battery on the battery stand or the battery mounting unit, wherein the battery mounting unit is provided with the connector pin module for establishing an electric connection with a battery, characterized in that the battery mounting unit is adapted to lift the connector pin module after the battery is seated on the battery mounting unit.
Machine for breaking the bead of a tyre of a wheel comprising: - a frame designed to rest on the floor, - a support plate to rest the lateral side of the wheel, - a bead breaker tool facing the support plate and mounted onto a tool-holder structure, the said tool-holder structure being mounted on the frame in such a manner that it can move, - an actuator connected to the frame and to the tool-holder structure and configured to move the tool-holder structure so as to move the bead breaker tool towards the support plate, - the said actuator being purely pneumatic, characterised in that - the machine further comprises a shock absorber mounted between the tool-holder structure and the frame, in that the shock absorber is a telescopic shock absorber, the cylinder of which is connected to the tool-holder structure or to the frame and the piston of which is connected to the frame or the tool-holder structure respectively, by a piston rod, and in that the shock absorber has a different shock absorbing coefficient depending on whether the shock absorber operates in one direction or in the opposite direction. - a frame designed to rest on the floor, - a support plate to rest the lateral side of the wheel, - a bead breaker tool facing the support plate and mounted onto a tool-holder structure, the said tool-holder structure being mounted on the frame in such a manner that it can move, - an actuator connected to the frame and to the tool-holder structure and configured to move the tool-holder structure so as to move the bead breaker tool towards the support plate, - the said actuator being purely pneumatic, characterised in that - the machine further comprises a shock absorber mounted between the tool-holder structure and the frame, in that the shock absorber is a telescopic shock absorber, the cylinder of which is connected to the tool-holder structure or to the frame and the piston of which is connected to the frame or the tool-holder structure respectively, by a piston rod, and in that the shock absorber has a different shock absorbing coefficient depending on whether the shock absorber operates in one direction or in the opposite direction.
A continuous process for producing titanium flat product which includes the steps of: (a) passing a titanium powder green flat material through a pre-heating station in which the flat material is heated under a protective atmosphere to a temperature at least sufficient for hot rolling, (b) passing pre-heated flat material from the pre-heating station to and through a rolling station while still under a protective atmosphere and hot rolling the pre-heated product to produce a hot rolled flat product of a required level of hot densification; and (c) passing the hot rolled flat product from the hot rolling station, to and through a cooling station adapted to provide cooling of the hot rolled flat product, while still under a protective atmosphere, and cooling the hot rolled flat product to a temperature at which it can be passed out of a protective atmosphere; wherein hot rolling in step (b) provides the predominant hot densification mechanism involved in the process, the flat material is at an elevated temperature during steps (a) and (b) for a period of time which is less than 5 minutes, wherein the pre-heating, hot rolling and cooling stations (22, 24, 26) are spaced within a single housing throughout which the protective atmosphere for each of steps (a), (b) and (c) is maintained by supplying protective gas, such as argon to the housing to maintain a slight over-pressure in the housing, wherein the housing has a consolidation unit in which the preheating and hot rolling stations (22, 24) are contained, and a cooling unit defining or containing the cooling station, wherein the titanium powder green flat material is green strip which is moved through the successive stations (22, 24, 26) by being drawn by rolls by which the hot rolling of step (b) is performed, wherein the process further includes, prior to step (a), a further step of forming the green strip by direct powder rolling of titanium powder to consolidate the powder as self-supporting green strip and wherein the green strip as produced is passed directly to the pre-heating station for step (a). (a) passing a titanium powder green flat material through a pre-heating station in which the flat material is heated under a protective atmosphere to a temperature at least sufficient for hot rolling, (b) passing pre-heated flat material from the pre-heating station to and through a rolling station while still under a protective atmosphere and hot rolling the pre-heated product to produce a hot rolled flat product of a required level of hot densification; and (c) passing the hot rolled flat product from the hot rolling station, to and through a cooling station adapted to provide cooling of the hot rolled flat product, while still under a protective atmosphere, and cooling the hot rolled flat product to a temperature at which it
Method for setting up a conveyance device comprising a plurality of conveyor zones, of which at least one in each case has a conveyor drive and a control unit to control the conveyor drive, with the step: - connecting the control units to one another by means of a signal bus line, characterised by the steps: - virtual setting up of the conveyance device on a computer device, by each control unit being virtually created on the computer device, the connection of the control units based on signal technology being virtually defined on the computer device by means of the bus line and a graphic output device of the computer device being shown, - provision of a signal input which can be manually triggered on each control unit, - connection of the computer device to the signal bus line, - allocation of an individual bus address to each control unit, by a. a single control unit being indicated for a user on the computer device, b. the signal input is triggered at the control unit indicated on the computer device and c. as a result of the triggering of the control unit a bus address is allocated, whereby steps a-c are repeated until each control unit has been allocated an individual bus address. - connecting the control units to one another by means of a signal bus line, - virtual setting up of the conveyance device on a computer device, by each control unit being virtually created on the computer device, the connection of the control units based on signal technology being virtually defined on the computer device by means of the bus line and a graphic output device of the computer device being shown, - provision of a signal input which can be manually triggered on each control unit, - connection of the computer device to the signal bus line, - allocation of an individual bus address to each control unit, by a. a single control unit being indicated for a user on the computer device, b. the signal input is triggered at the control unit indicated on the computer device and c. as a result of the triggering of the control unit a bus address is allocated, whereby steps a-c are repeated until each control unit has been allocated an individual bus address. a. a single control unit being indicated for a user on the computer device, b. the signal input is triggered at the control unit indicated on the computer device and c. as a result of the triggering of the control unit a bus address is allocated,
A content distribution system comprising a plurality of access servers (10, 20, 30), each access server being arranged to route traffic to and from a respective predetermined group of end users (11, 12; 21, 22; 31, 32) on a network, forming a respective subdomain (1, 2, 3) associated with the access server, each of said access servers having means for transmitting data packets to an associated respective content server (13, 23) or group of content servers, whereby each of the content servers in said content distribution system have the same IP address and are accessible from the end users in their respective subdomains using said internet protocol address common to all the subdomains, and each access server is configured to route any data packets it receives, if addressed to the said internet protocol address, to its respective content server or group of content servers, whereby each access server will only identify the IP address with the content server or group of content servers with which it is associated.