mhurhangee/ep-ind-claims huggingface dataset:
Bicomponent fibre, specifically for manufacturing spunbonded non-woven fabrics, with a first component and a second component, wherein the first component comprises a first polymer and the second component comprises a second polymer as a constituent and wherein the first component surrounds the second component, characterised in that the first component and the second component comprise an additive, wherein the mass fraction of the additive in the second component is smaller than in the first component and that the additive is selected from the group of - sterically hindered phenols as primary antioxidants and/or - organic phosphites as secondary antioxidants and/or - triazines as UV absorbers and/or - sterically hindered amines (HALS) as UV stabilisers. - sterically hindered phenols as primary antioxidants and/or - organic phosphites as secondary antioxidants and/or - triazines as UV absorbers and/or - sterically hindered amines (HALS) as UV stabilisers.
A rotational atherectomy device for abrading a stenotic lesion from a vessel of a patient comprising a flexible drive shaft which extends towards a distal end of the device, a distal fluid inflatable support element located at a distal end of the drive shaft and an abrasive element mounted to the drive shaft proximal to and spaced away from the distal fluid inflatable support element, both the abrasive element and the distal fluid inflatable support element being rotatable together with the drive shaft, the drive shaft comprising a torque transmitting coil which defines a long lumen of the drive shaft, the distal fluid inflatable support element being formed from a fluid impermeable membrane that crosses a longitudinal axis (x-x) common to the torque transmitting coil and the lumen of the drive shaft at the distal end of the device, thereby preventing pressurized fluid flowing along the lumen of the drive shaft from entering the vessel in the direction of said longitudinal axis so that fluid has to pass through the fluid inflatable support element, inflating said support element and exiting from the device through an outflow opening in the fluid inflatable support element in a direction different from the direction of the longitudinal axis of the coil and the lumen.
Horological regulator mechanism comprising, arranged on a plate, a resonator mechanism with a quality factor Q, and an escapement mechanism which is arranged to be subjected to a torque from drive means comprised in a movement, said resonator mechanism comprising an inertial element arranged to oscillate with respect to said plate, said inertial element being subjected to the action of resilient return means directly or indirectly attached to said plate, and said inertial element being arranged to cooperate indirectly with an escape wheel set comprised in said escapement mechanism, wherein said resonator mechanism is a resonator with a virtual pivot rotating about a main axis, with a flexure bearing comprising at least two flexible blades, and comprising an impulse pin integral with said inertial element, wherein said escapement mechanism comprises a pallet-lever pivoting about a secondary axis and comprising a pallet-lever fork arranged to cooperate with said impulse pin, and is a detached escapement mechanism, in the operating cycle of which, said resonator mechanism has at least one phase of freedom in which said impulse pin is at a distance from said pallet-lever fork, wherein said pallet-lever is arranged in a single level and, in order for it to cooperate with said single-level pallet-lever, the balance is also, locally, arranged in a single level, characterised in that the anti-overbanking function of said resonator mechanism is ensured by the combination of an arcuate periphery of said impulse pin, and by the corresponding antagonistic surface (810; 820) of a relevant horn (81; 82) of said pallet-lever.
Method for filling a container with a fill product by means of a proportional valve, containing the steps - determining the volume flow as a function of time (q(t)) for a predetermined opening curve (H(t)) of the proportional valve; - controlling the filling of the container based on the function of the volume flow (q(t)). - determining the volume flow as a function of time (q(t)) for a predetermined opening curve (H(t)) of the proportional valve; - controlling the filling of the container based on the function of the volume flow (q(t)).
A method, comprising: returning, in response to a request from a client, an address of a first server (170, 208, 210, 212, 406) that should service a second server's (170, 208, 212, 406) request for an information object when the second server does not have the information object, the address of the first server being selected according to specified performance metrics, wherein the specified performance metrics comprise average processing delays at the first server, average delay from the first server to the second server, reliability of a path from the first server to the second server, and available bandwidth in said path from the first server to the second server; referring the second server's request for the information object to a first Web router; and configuring the first Web router having a Web Information Locator by Distance WILD module to create a map that associates an identifier of the information object with the address of the first server according to the specified performance metrics and mappings generated by other Web routers and forwarded to the first Web router, wherein the mappings generated by the other Web routers are forwarded to the first Web router as inter-Web router communication messages passed between the Web routers using a WILD protocol, wherein the WILD module includes a neighbor protocol module to receive changes in information object repository connectivity. returning, in response to a request from a client, an address of a first server (170, 208, 210, 212, 406) that should service a second server's (170, 208, 212, 406) request for an information object when the second server does not have the information object, the address of the first server being selected according to specified performance metrics, wherein the specified performance metrics comprise average processing delays at the first server, average delay from the first server to the second server, reliability of a path from the first server to the second server, and available bandwidth in said path from the first server to the second server; referring the second server's request for the information object to a first Web router; and configuring the first Web router having a Web Information Locator by Distance WILD module to create a map that associates an identifier of the information object with the address of the first server according to the specified performance metrics and mappings generated by other Web routers and forwarded to the first Web router, wherein the mappings generated by the other Web routers are forwarded to the first Web router as inter-Web router communication messages passed between the Web routers using a WILD protocol, wherein the WILD module includes a neighbor protocol module to receive changes in information object repository connectivity.
Method for optimizing repeated write access by a client (1, 1.1, 1.2) to at least one variable in a server (3, 3.1, 3.2) by means of OPC Unified Architecture, wherein - a call method for repeated write access is provided on the server (3, 3.1, 3.2), the call method comprising the notification of an access time interval and at least one variable for the repeated write access, - the client (1, 1.1, 1.2) calls the call method on the server (3, 3.1, 3.2) and the server (3, 3.1, 3.2) is notified of an access time interval and the at least one variable for the repeated write access in the process, - the server (3, 3.1, 3.2) creates a data structure for the repeated write access after the call method has been called by the client (1, 1.1, 1.2) and maintains said data structure during the access time interval, - values of the at least one variable which are to be written are transmitted to the server (3, 3.1, 3.2) by the client (1, 1.1, 1.2) during the access time interval, and - the server (3, 3.1, 3.2) allocates each value transmitted by the client (1, 1.1, 1.2) to the associated variable by means of the data structure. - a call method for repeated write access is provided on the server (3, 3.1, 3.2), the call method comprising the notification of an access time interval and at least one variable for the repeated write access, - the client (1, 1.1, 1.2) calls the call method on the server (3, 3.1, 3.2) and the server (3, 3.1, 3.2) is notified of an access time interval and the at least one variable for the repeated write access in the process, - the server (3, 3.1, 3.2) creates a data structure for the repeated write access after the call method has been called by the client (1, 1.1, 1.2) and maintains said data structure during the access time interval, - values of the at least one variable which are to be written are transmitted to the server (3, 3.1, 3.2) by the client (1, 1.1, 1.2) during the access time interval, and - the server (3, 3.1, 3.2) allocates each value transmitted by the client (1, 1.1, 1.2) to the associated variable by means of the data structure.
A design method of a tip shape of a cutting member used in a semiconductor piece manufacturing method including a process of forming a groove on a front surface side on a front surface of a substrate, and a process of forming a groove on a rear surface side that communicates with the groove on the front surface side by a rotating cutting member that has a thickness larger than the width of the groove on the front surface side from a rear surface of the substrate and individualizing the substrate into semiconductor pieces having a step portion formed by a difference between the width of the groove on the front surface side and the width of the groove on the rear surface side, the design method comprising: a process of preparing a plurality of cutting members having different degrees of taper in a tip portion thereof; a process of preparing a plurality of grooves on the front surface side having the same shape; a process of confirming a breakage status of the step portion with respect to respective cases where the groove on the rear surface side is formed by the plural cutting members with respect to the plural grooves on the front surface side; and a process of selecting, when it is confirmed that both of a cutting member that causes breakage of the step portion and a cutting member that does not cause the breakage of the step portion are included in the plurality of cutting members, either the degree of taper of the cutting member that does not cause the breakage of the step portion or a cutting member having a degree of taper included in a taper range of the cutting member that does not cause the breakage of the step portion estimated from the confirmation result as a tip shape of a cutting member to be used in a mass production process. a process of preparing a plurality of cutting members having different degrees of taper in a tip portion thereof; a process of preparing a plurality of grooves on the front surface side having the same shape; a process of confirming a breakage status of the step portion with respect to respective cases where the groove on the rear surface side is formed by the plural cutting members with respect to the plural grooves on the front surface side; and a process of selecting, when it is confirmed that both of a cutting member that causes breakage of the step portion and a cutting member that does not cause the breakage of the step portion are included in the plurality of cutting members, either the degree of taper of the cutting member that does not cause the breakage of the step portion or a cutting member having a degree of taper included in a taper range of the cutting member that does not cause the breakage of the step portion estimated from the confirmation result as a tip shape of a cutting member to be used in a mass production process.
System for applying a sealing agent to the surface of an internal cavity of a pneumatic tyre; the system comprises: an applicator device, which is intended to apply a strip of sealing agent to the surface; the system is characterized in that it comprises: an optoelectronic device provided with at least one sensor element that is able to acquire a plurality of images of the entire surface and to provide a plurality of signals that are indicative of the plurality of captured images; and an electronic processing system, which is connected to the optoelectronic device, is configured in such a way as to acquire the signals that are indicative of the plurality of captured images and to process them in order to determine the surface profile of the entire internal cavity as a function of the respective images, is connected to the applicator device, and is configured in such a way as to drive the applicator device as a function of the surface profile of the entire internal cavity. an applicator device, which is intended to apply a strip of sealing agent to the surface; the system is characterized in that it comprises: an optoelectronic device provided with at least one sensor element that is able to acquire a plurality of images of the entire surface and to provide a plurality of signals that are indicative of the plurality of captured images; and an electronic processing system, which is connected to the optoelectronic device, is configured in such a way as to acquire the signals that are indicative of the plurality of captured images and to process them in order to determine the surface profile of the entire internal cavity as a function of the respective images, is connected to the applicator device, and is configured in such a way as to drive the applicator device as a function of the surface profile of the entire internal cavity. an optoelectronic device provided with at least one sensor element that is able to acquire a plurality of images of the entire surface and to provide a plurality of signals that are indicative of the plurality of captured images; and an electronic processing system, which is connected to the optoelectronic device, is configured in such a way as to acquire the signals that are indicative of the plurality of captured images and to process them in order to determine the surface profile of the entire internal cavity as a function of the respective images, is connected to the applicator device, and is configured in such a way as to drive the applicator device as a function of the surface profile of the entire internal cavity.
Underground link box for connecting and/or switching adjacent sections of at least two low-voltage cables, the underground link box comprising - an outer housing body; - an inner phase housing for receiving electric connection links linking the at least two low-voltage cables, the inner phase housing being received within the housing body and having an access opening; and - a diving bell lid arranged between the housing body and the inner phase housing, wherein the diving bell lid is open in a downward direction, wherein the diving bell lid comprises an upper wall opposite its opening, and wherein the diving bell lid is adapted to receive the inner phase housing underneath the upper wall, wherein a condensate protection cover is provided between the access opening of the inner phase housing and the upper wall of the diving bell lid as a cover for the access opening, characterized in that the condensate protection cover is fixed to the diving bell lid. - an outer housing body; - an inner phase housing for receiving electric connection links linking the at least two low-voltage cables, the inner phase housing being received within the housing body and having an access opening; and - a diving bell lid arranged between the housing body and the inner phase housing, wherein the diving bell lid is open in a downward direction, wherein the diving bell lid comprises an upper wall opposite its opening, and wherein the diving bell lid is adapted to receive the inner phase housing underneath the upper wall,
A method for controlling a multi-gas sensor comprising an NO X sensor section; and an ammonia sensor section formed on an outer surface of the NO X sensor section, wherein the NO X sensor section includes a first pumping cell which extends between the interior and exterior of a first measurement chamber, has paired first electrodes (2b, 2c) provided on a first solid electrolyte body, and is adapted to pump out or pump in oxygen of a gas under measurement introduced into the first measurement chamber, and a second pumping cell which extends between the interior and exterior of an NO X measurement chamber communicating with the first measurement chamber, has paired second electrodes (4b, 4c) provided on a second solid electrolyte body, and is configured such that a second pumping current flows between the paired second electrodes, the second pumping current corresponding to an NO X concentration of the gas under measurement having flowed into the NO X measurement chamber after adjustment of its oxygen concentration in the first measurement chamber; and the ammonia sensor section has at least a pair of electrodes formed on a solid electrolyte body and outputs an ammonia concentration output, the method comprising calculating an oxygen concentration on the basis of a first pumping current flowing through the first pumping cell; and calculating a corrected ammonia concentration on the basis of the oxygen concentration and the ammonia concentration output of the ammonia sensor section.
Method for producing a stator of a rotating electric machine, the stator comprising - a stator winding with a winding head, which forms an end region of the stator winding at a stator end of the stator, - and an adjacent component arranged at the stator end, which has a channel which runs annularly about a stator axis of the stator, into which channel the stator winding protrudes with its winding head, - wherein the winding head in the channel is cast in an electrically insulting casting compound, characterised in that in order to introduce the casting compound, - the stator is mounted such that the stator winding with its winding head protrudes from above into the channel of the adjacent component, - the interior of the stator is flooded with liquid casting compound so that the stator winding is surrounded by the casting compound and the channel is filled with casting compound, - the liquid casting compound is drained from the interior of the stator, wherein the channel remains filled with casting compound, - and the casting compound is then cured. - a stator winding with a winding head, which forms an end region of the stator winding at a stator end of the stator, - and an adjacent component arranged at the stator end, which has a channel which runs annularly about a stator axis of the stator, into which channel the stator winding protrudes with its winding head, - wherein the winding head in the channel is cast in an electrically insulting casting compound, characterised in that in order to introduce the casting compound, - the stator is mounted such that the stator winding with its winding head protrudes from above into the channel of the adjacent component, - the interior of the stator is flooded with liquid casting compound so that the stator winding is surrounded by the casting compound and the channel is filled with casting compound, - the liquid casting compound is drained from the interior of the stator, wherein the channel remains filled with casting compound, - and the casting compound is then cured.
On-board motor vehicle electrical system comprising a first voltage supply system and comprising a second voltage supply system, - wherein the first voltage supply system has a first voltage source with a relatively low voltage, and the second voltage supply system has a second voltage source with a relatively high voltage, - wherein the first voltage supply system and the second voltage supply system are DC-isolated from one another and connected to one another in a signal-transmitting manner by a coupling element, - wherein the second voltage supply system has at least one electrical switching element for a load, and - wherein the on-board motor vehicle electrical system has a control apparatus for controlling the load by means of the respective switching element, - wherein the coupling element is connected to the respective switching element in a signal-transmitting manner by means of the control apparatus, characterized - in that the first voltage supply system has an additional control apparatus, and - in that the additional control apparatus is connected to the coupling element in a signal-transmitting manner. - wherein the first voltage supply system has a first voltage source with a relatively low voltage, and the second voltage supply system has a second voltage source with a relatively high voltage, - wherein the first voltage supply system and the second voltage supply system are DC-isolated from one another and connected to one another in a signal-transmitting manner by a coupling element, - wherein the second voltage supply system has at least one electrical switching element for a load, and - wherein the on-board motor vehicle electrical system has a control apparatus for controlling the load by means of the respective switching element, - wherein the coupling element is connected to the respective switching element in a signal-transmitting manner by means of the control apparatus, - in that the first voltage supply system has an additional control apparatus, and - in that the additional control apparatus is connected to the coupling element in a signal-transmitting manner.
A method for controlling dispersion and/or permeability of a sample and carrier liquid across a micro-fabricated separation channel, comprising providing in the front of, or in the back of said micro-fabricated separation channel a flow distribution region that is filled with an array of micro-fabricated pillars and having an inlet connection-hole, respectively an outlet connection-hole for the supply, respectively the withdrawal of said sample and carrier liquid to and from said micro-fabricated separation channel, said method comprising inducing a lateral permeability that is larger than an axial permeability, characterized in that said pillars have a shape, size and positioning pattern selected such that said flow distribution region provides a ratio of lateral to axial permeability of at least 2, the incoming liquid being spread in the lateral direction across the channel cross-section.