mhurhangee/ep-ind-claims huggingface dataset:
A content deployment method, comprising: receiving, by a delivery controller, a content deployment request from an application server controller, wherein the content deployment request comprises identification information of requested content and address information of an application server storing the requested content; sending, by the delivery controller, a first deployment cache request to a first cache server, wherein the first deployment cache request comprises the identification information of the requested content and the address information of the application server, and the first deployment cache request is used to request the first cache server to obtain the requested content from the application server and cache the requested content; and sending, by the delivery controller, a second deployment cache request to a second cache server, wherein the second deployment cache request comprises the identification information of the first cache server and the identification information of the requested content, and the second deployment cache request is used to request the second cache server to obtain the requested content from the first cache server and cache the requested content. receiving, by a delivery controller, a content deployment request from an application server controller, wherein the content deployment request comprises identification information of requested content and address information of an application server storing the requested content; sending, by the delivery controller, a first deployment cache request to a first cache server, wherein the first deployment cache request comprises the identification information of the requested content and the address information of the application server, and the first deployment cache request is used to request the first cache server to obtain the requested content from the application server and cache the requested content; and sending, by the delivery controller, a second deployment cache request to a second cache server, wherein the second deployment cache request comprises the identification information of the first cache server and the identification information of the requested content, and the second deployment cache request is used to request the second cache server to obtain the requested content from the first cache server and cache the requested content.
Joint arrangement for a truck, comprising at least one deformation element (12.1, 12.2), wherein the deformation element (12.1, 12.2) comprises at least one rod (14.1, 14.2) and a connection plate (16.1, 16.2), wherein the connection plate (16.1, 16.2) is arranged on the rod (14.1, 14.2), wherein the rod has at least one stop element (24.1, 24.2), the connection plate (16.1, 16.2) can be displaced on the rod in the longitudinal direction of said rod (14.1, 14.2), wherein a deformation work can be performed at the deformation element (12.1, 12.2) in the event of a displacement of the connection plate (16.1, 16.2) on the rod (14.1, 14.2) and wherein a displacement path of the connection plate (16.1, 16.2) on the rod (14.1, 14.2) is limited by the stop element (24.1, 24.2), wherein the joint arrangement comprises a joint fork part and a joint eye part, wherein a joint fork and/or a joint eye is materially connected with the rod (14.1, 14.2), whereby the joint fork and/or the joint eye at least partially comprises the at least one stop element (24.1, 24.2), and wherein the stop element (24.1, 24.2) is at least partially materially connected with the joint fork and/or the joint eye.
A method for planning an irradiation of a target volume with a particle beam, wherein intensities for target points are determined, which are to be targeted sequentially by a beam, and wherein each respective target point to be targeted is located in the Bragg peak of the particle beam when the particle beam is directed to this target point, the method comprising the steps of: identifying a volume to be protected, in which a dose generated by irradiating the target volume shall not exceed a predetermined maximum value; determining intensities for target points in a manner so that within the volume to be protected the generated dose does not exceed the predetermined maximum value during an irradiation as planned; wherein, for determining the intensities, a dose contribution data set is used, which comprises the dose generated at other locations during an irradiation as planned when directing the beam to any one of the target points with a predetermined intensity; wherein if the target volume overlaps with the volume to be protected, the intensities are generated in a manner so that the target points falling into the overlap are set inactive in order to protect the volume to be protected. identifying a volume to be protected, in which a dose generated by irradiating the target volume shall not exceed a predetermined maximum value; determining intensities for target points in a manner so that within the volume to be protected the generated dose does not exceed the predetermined maximum value during an irradiation as planned; wherein, for determining the intensities, a dose contribution data set is used, which comprises the dose generated at other locations during an irradiation as planned when directing the beam to any one of the target points with a predetermined intensity; wherein if the target volume overlaps with the volume to be protected, the intensities are generated in a manner so that the target points falling into the overlap are set inactive in order to protect the volume to be protected.
A method for switching off at least part of a communication network, the communication network comprising a plurality of access points coordinated in a centralised manner by a master device, the access points and the master device being interconnected with each other by a backhaul network, each access point managing a so-called fronthaul wireless network, a station being able to be associated with a fronthaul network of the communication network, the method being implemented by the master device and being characterised in that it comprises: - obtaining from each access point at least one item of information relating to each station in the communication network associated with said access point or which is disassociated from said access point, said at least one item of information obtained comprising association information indicating with which fronthaul network the station is associated or from which fronthaul network the station is disassociated, and further comprising information representing a signal level received by the access point coming from the station, - determining, for each station in the communication network, whether the station is associated with a fronthaul network or disassociated from any fronthaul network according to the association information, - determining, for each station in the communication network, whether the station is mobile or fixed according to a variation in the received signal level coming from the station, - determining, for each mobile station dissociated from any fronthaul network, the last fronthaul network with which the station (!50) was associated according to the association information, said last fronthaul network being said to be critical, - initiating a phase of switching off at least one non-critical fronthaul network when all the mobile stations are disassociated from any fronthaul network. - obtaining from each access point at least one item of information relating to each station in the communication network associated with said access point or which is disassociated from said access point, said at least one item of information obtained comprising association information indicating with which fronthaul network the station is associated or from which fronthaul network the station is disassociated, and further comprising information representing a signal level received by the access point coming from the station, - determining, for each station in the communication network, whether the station is associated with a fronthaul network or disassociated from any fronthaul network according to the association information, - determining, for each station in the communication network, whether the station is mobile or fixed according to a variation in the received signal level coming from the station, - determining, for each mobile station dissociated from any fronthaul network, the last fronthaul network with which the station (!50) was associated according to the association information, said last fronthaul network being said to be critical, - initiating a phase of switching off at least one non-critical fronthaul network when all the mobile stations are disassociated from any fronthaul network.
Railway with acoustic wall system, whereby the acoustic wall system has a constructed height of max. 720 mm above top of rail and whereby the acoustic wall system comprises absorption beams mounted on standard foundation elements and said beams can convert the audible airborne sound created by rail traffic on the tracks of the railway into inaudible vibration energy waves autodynamically by means of absorption/dissipation, whereby the absorption beams consist of a U-section made from metal or equivalent deformable materials in structurally permissible lengths with a square or rectangular cross-section and are fully closed on three sides and at both ends, whereby the fourth side is formed as an open sound inlet and is covered in such a way that the airborne sound energy emitted by the sound source can flow into the interior of the absorption beam with as little resistance as technically possible and hence into the highly porous, open-pore and non-putrescible, mineral granulate located there.
A device comprising: a sensor element having a first drive node and a first sense node, the sensor element comprising a resonator element, the resonator element having: (i) a drive structure, the drive structure electrically coupled with the first drive node; and (ii) a sense structure, the sense structure electrically coupled with the first sense node; wherein a first parasitic current is present between said first drive node and said first sense node when a first drive signal is applied at said first drive node; characterised by a capacitive network having a first input coupled to a voltage source and a first output coupled to said first sense node, said first capacitive network substantially canceling said first parasitic current when a second drive signal of opposite phase to said first drive signal is applied at said first input. a sensor element having a first drive node and a first sense node, the sensor element comprising a resonator element, the resonator element having: (i) a drive structure, the drive structure electrically coupled with the first drive node; and (ii) a sense structure, the sense structure electrically coupled with the first sense node; (i) a drive structure, the drive structure electrically coupled with the first drive node; and (ii) a sense structure, the sense structure electrically coupled with the first sense node; wherein a first parasitic current is present between said first drive node and said first sense node when a first drive signal is applied at said first drive node; characterised by a capacitive network having a first input coupled to a voltage source and a first output coupled to said first sense node, said first capacitive network substantially canceling said first parasitic current when a second drive signal of opposite phase to said first drive signal is applied at said first input.
A fluid sensor for measuring the pressure of a fluid, the fluid sensor comprising: a surface; a recess formed at the surface, the recess being configured to affect the pressure of the fluid flowing at the recess, wherein a rim of the recess comprises a leading edge, a trailing edge and two side edges (105,107); at least one ambient sensor port for measuring ambient fluid pressure at the surface; a first recess sensor port and a second recess sensor port for measuring the fluid pressure at the recess; a transducer at each of the respective sensor ports (106, 108) for converting the detected fluid pressure into a fluid pressure signal; a processor operably connected to each of the transducers and configured to: receive the fluid pressure signal from each transducer; generate from the fluid pressure signals a fluid pressure profile, and determine, using the fluid pressure profile, at least one characteristic of the fluid; characterised in that; the recess defines a funnel shape wherein the leading edge is wider than the trailing edge and wherein the fluid sensor defines a longitudinal axis; and, the at least one ambient sensor port is positioned at the leading edge and on the longitudinal axis. a surface; a recess formed at the surface, the recess being configured to affect the pressure of the fluid flowing at the recess, wherein a rim of the recess comprises a leading edge, a trailing edge and two side edges (105,107); at least one ambient sensor port for measuring ambient fluid pressure at the surface; a first recess sensor port and a second recess sensor port for measuring the fluid pressure at the recess; a transducer at each of the respective sensor ports (106, 108) for converting the detected fluid pressure into a fluid pressure signal; a processor operably connected to each of the transducers and configured to: receive the fluid pressure signal from each transducer; generate from the fluid pressure signals a fluid pressure profile, and determine, using the fluid pressure profile, at least one characteristic of the fluid; receive the fluid pressure signal from each transducer; generate from the fluid pressure signals a fluid pressure profile, and determine, using the fluid pressure profile, at least one characteristic of the fluid; characterised in that; the recess defines a funnel shape wherein the leading edge is wider than the trailing edge and wherein the fluid sensor defines a longitudinal axis; and, the at least one ambient sensor port is positioned at the leading edge and on the longitudinal axis. the recess defines a funnel shape wherein the leading edge is wider than the trailing edge and wherein the fluid sensor defines a longitudinal axis; and, the at least one ambient sensor port is positioned at the leading edge and on the longitudinal axis.
A polyolefin composition in the form of an extruded sheet, an extruded multi-layer sheet, or a single or a multi-layer carpet backing, wherein the composition comprises a physical mixture of: from 97 to 90 parts by weight of a filled polyolefin composition comprising from 5 to 40 weight percent of at least one linear ethylene polymer and/or substantially linear ethylene polymer having: (i) a density from 0.85 g/cm 3 to 0.93 g/cm 3, (ii) a molecular weight distribution (M w /M n) of less than 3.5, and (iii) a melt index (I 2) of from 0.1 grams/10 minutes to 175 grams/10 minutes, and from 60 to 95 weight percent of at least one filler, wherein weight percent of and is based on the weight of the filled polyolefin and from 3 to 10 parts by weight of at least one functionalized polyethylene having a melt index (I 2) equal to or greater than 500, wherein the parts by weight of and is based on the total weight of the polyolefin composition, and wherein the composition is made by dry blending pellets of the filled polyolefin composition and pellets of the functionalized polyethylene to produce a physical mixture, and extruding the mixture without prior melt blending. from 97 to 90 parts by weight of a filled polyolefin composition comprising from 5 to 40 weight percent of at least one linear ethylene polymer and/or substantially linear ethylene polymer having: (i) a density from 0.85 g/cm 3 to 0.93 g/cm 3, (ii) a molecular weight distribution (M w /M n) of less than 3.5, and (iii) a melt index (I 2) of from 0.1 grams/10 minutes to 175 grams/10 minutes, and from 60 to 95 weight percent of at least one filler, wherein weight percent of and is based on the weight of the filled polyolefin and from 5 to 40 weight percent of at least one linear ethylene polymer and/or substantially linear ethylene polymer having: (i) a density from 0.85 g/cm 3 to 0.93 g/cm 3, (ii) a molecular weight distribution (M w /M n) of less than 3.5, and (iii) a melt index (I 2) of from 0.1 grams/10 minutes to 175 grams/10 minutes, and (i) a density from 0.85 g/cm 3 to 0.93 g/cm 3, (ii) a molecular weight distribution (M w /M n) of less than 3.5, and (iii) a melt index (I 2) of from 0.1 grams/10 minutes to 175 grams/10 minutes, and from 60 to 95 weight percent of at least one filler, from 3 to 10 parts by weight of at least one functionalized polyethylene having a melt index (I 2) equal to or greater than 500,
A mechanical differential actuator for interacting with a mechanical load, comprising: a first brake (148; 210); a second brake (150; 212); a velocity source (104; 214; 246); a first mechanical differential having three interaction ports, including a first interaction port (120; 248; 270) coupled to the velocity source (104; 214; 246), a second interaction port (136; 256; 276) and a third interaction port (138; 252; 272) coupled to the first brake (148; 210); and a second mechanical differential having three interaction ports, including a first interaction port (130; 250; 270) coupled to the velocity source (104; 214; 246), a second interaction port (134; 258; 276) and a third interaction port (140; 254; 274) coupled to the second brake (150; 212); wherein the second interaction port (136; 256) of the first mechanical differential and the second interaction port (134; 258) of the second mechanical differential are coupled together to form an output (188; 218; 266; 270) which is configured so as to be coupled to the load, characterized in that the first interaction port of the first mechanical differential is coupled to the velocity source so as to move in a first direction and the first interaction port of the second mechanical differential is coupled to the velocity source so as to move in a second direction opposite the first direction, wherein the output force of the differential actuator is controlled in both directions by a combination of the braking forces of the first and second brakes (148, 150; 210, 212). a first brake (148; 210); a second brake (150; 212); a velocity source (104; 214; 246); a first mechanical differential having three interaction ports, including a first interaction port (120; 248; 270) coupled to the velocity source (104; 214; 246), a second interaction port (136; 256; 276) and a third interaction port (138; 252; 272) coupled to the first brake (148; 210); and a second mechanical differential having three interaction ports, including a first interaction port (130; 250; 270) coupled to the velocity source (104; 214; 246), a second interaction port (134; 258; 276) and a third interaction port (140; 254; 274) coupled to the second brake (150; 212); wherein the second interaction port (136; 256) of the first mechanical differential and the second interaction port (134; 258) of the second mechanical differential are coupled together to form an output (188; 218; 266; 270) which is configured so as to be coupled to the load, characterized in that the first interaction port of the first mechanical differential is coupled to the velocity source so as to move in a first direction and the first interaction port of the second mechanical differential is coupled to the velocity source so as to move in a second direction opposite the first direction, wherein the output force of the differential actuator is controlled in both directions by a combination of the braking forces of the first and second brakes (148, 150; 210, 212).
A method for achieving water exchange in a plurality of breeding tanks, which are arranged above one another, for caging aquatic animals with supply of breeding water up to a maximum water level (W max) from a storage tank arranged below the breeding tank for stocking breeding water by means of a pump to at least one of the breeding tanks and returning breeding water from at least one of the breeding tanks to a minimum water level (W min) to the storage tank without a pump whilst making use of communicating water columns between the breeding tanks and the storage tank, characterized in that water losses in the storage tank can be compensated by supplying fresh breeding water in a controlled manner and the breeding water separately to each individual breeding tank (03.1..03.n) from the storage tank and returned separately from each individual breeding tank (03.1..03.n) directly to the storage tank, wherein there is continuous alternation between supplying and returning the breeding water to and from each breeding tank (03.1..03.n) via one and the same pipeline (08.1..08.n) in each case periodically and the pump (07.1...07.n) is not operated during returning.
Coating device arrangement for a 3D printer, comprising: a coating device having a carrier structure (21 a to 21 c) and a container fixed to the carrier structure, which defines an inner cavity for receiving particulate construction material, which leads to an opening for outputting the particulate construction material, a vibration device configured to vibrate particulate construction material received in the container and thereby to influence the discharge of construction material from the opening, and a stroking member attached to the coating device, configured to stroke particulate construction material output from the opening, to thereby level and/or compress the output particulate material, and/or a closing device configured to selectively close the opening and comprising a closing member (31 a) attached to the coating device, characterized in that the stroking member and/or the closing member (31 a) is/are fixed to the carrier structure in a way to be vibration-decoupled from the vibration generated by the vibration device in the container. a coating device having a carrier structure (21 a to 21 c) and a container fixed to the carrier structure, which defines an inner cavity for receiving particulate construction material, which leads to an opening for outputting the particulate construction material, a vibration device configured to vibrate particulate construction material received in the container and thereby to influence the discharge of construction material from the opening, and a stroking member attached to the coating device, configured to stroke particulate construction material output from the opening, to thereby level and/or compress the output particulate material, and/or