mhurhangee/ep-ind-claims huggingface dataset:
A super-micro bubble generation device comprising: a compressor for delivering gas under pressure, and a bubble generation medium for discharging the gas, which has been delivered under pressure, as super-micro bubbles into liquid, wherein the said bubble generation medium consists of a high-density compound which is an electrically conductive substance, and wherein said bubble generation medium is porous having a lot of tiny pores of several μm to several dozen μm in diameter, and further comprising a liquid jetting device for jetting liquid in the direction substantially perpendicular to the direction in which the bubble generation medium discharges the super-micro bubbles, said liquid being the same kind of liquid as the liquid into which the super-micro bubbles are discharged, characterised in that a bubble guide groove, which is formed around the bubble generation medium, is provided downstream of the liquid flow jetted from the liquid jetting device, the bubble guide groove is formed into an arc-like shape in the cross section view, located downstream of the liquid flow and guides the direction of super-micro bubbles movement. a compressor for delivering gas under pressure, and a bubble generation medium for discharging the gas, which has been delivered under pressure, as super-micro bubbles into liquid, wherein the said bubble generation medium consists of a high-density compound which is an electrically conductive substance, and wherein said bubble generation medium is porous having a lot of tiny pores of several μm to several dozen μm in diameter, and further comprising a liquid jetting device for jetting liquid in the direction substantially perpendicular to the direction in which the bubble generation medium discharges the super-micro bubbles, said liquid being the same kind of liquid as the liquid into which the super-micro bubbles are discharged, characterised in that a bubble guide groove, which is formed around the bubble generation medium, is provided downstream of the liquid flow jetted from the liquid jetting device, the bubble guide groove is formed into an arc-like shape in the cross section view, located downstream of the liquid flow and guides the direction of super-micro bubbles movement.
A rubber composition comprising a rubber component, wherein the rubber component contains at least a polymer that comprises a synthesized polyisoprene or an isoprene copolymer and that has 20 % or less gel fraction, wherein the synthesized polyisoprene refers to an isoprene homopolymer obtained by polymerizing (or synthesizing) isoprene monomers, and the isoprene copolymer refers to a copolymer composed of isoprene and a compound other than isoprene, obtained by polymerizing (or synthesizing) isoprene monomers and monomers of a compound other than isoprene; wherein the polymer has a number average molecular weight (Mn) of 1.5 million or more when measured by gel permeation chromatography.
A radio interface for communicating with a plurality of measurement probe devices (4a-4e), the radio interface comprising a primary modem for communicating with a first measurement probe device over a first frequency hopping spread spectrum radio link, the primary modem being configured to allow frequency hopping synchronisation to be maintained with the first measurement probe device and to receive time critical measurement data from the first measurement probe device over the first frequency hopping spread spectrum radio link, characterised in that the interface also comprises a secondary modem configured to communicate with a plurality of further measurement probe devices (4b-4e) when said further measuring probe devices are in a standby state using a plurality of further frequency hopping spread spectrum radio links, the secondary modem being configured to allow frequency hopping synchronisation to be maintained with each of said plurality of further measurement probe devices (4b-4e) but not to allow measurement data to be received from any of the plurality of further measurement probe devices (4b-4e).
Lightweight seat for vehicles, in particular for rear seats for motor vehicles, consisting of a carrier part, wherein the carrier part is produced from a dimensionally stable material and has integrally therewith at least one seat shell for a seat user, wherein the at least one seat shell is designed as a depression which corresponds to a shape of the buttocks of a seat user, wherein the seat is delimited by a front side and a rear side as viewed in the vehicle longitudinal direction, and the depression has a rear seat shell portion which rises rearwardly towards the rear side, wherein the rear seat shell portion is adjoined by two seat shell portions which extend in the direction of the front side for receiving the thighs of a seat user, which seat shell portions rise in a transverse direction towards the respective edge of the seat shell and each have a concave shape, wherein an armrest is respectively formed by the carrier part on both sides adjacent to at least one seat shell, the side walls (10a, 10b) of which armrest naturally delimit the seat shell region and are designed to provide the seat user with lateral retention.
A memory module couplable to a memory controller of a host system, comprising: a data manager coupled to the memory controller of the host system using a data bus, the data manager operable to communicate data signals with the memory controller of the host system by way of the data bus; a first volatile memory subsystem (508) coupled to the data manager using a first data bus and operable to communicate data signals with the data manager by way of the first data bus; a second volatile memory subsystem (508) coupled to the data manager using a second data bus, the second volatile memory subsystem operable to communicate data signals with the data manager by way of the second data bus; a non-volatile memory subsystem coupled to the data manager using a third data bus, the non-volatile memory subsystem operable to communicate data signals with the data manager by way of the third data bus; and a memory module controller operable to receive one or more commands from the memory controller of the host system, characterized in that in response to the one or more commands received from the memory controller of the host system, the memory module controller generates and transmits one or more control signals to the data manager, wherein, in response to the one or more control signals, the data manager transfers data between the first volatile memory subsystem and the memory controller of the host system, and, concurrently, transfers data signals from the non-volatile memory subsystem to the second volatile memory subsystem by way of the third data bus and the second data bus a data manager coupled to the memory controller of the host system using a data bus, the data manager operable to communicate data signals with the memory controller of the host system by way of the data bus; a first volatile memory subsystem (508) coupled to the data manager using a first data bus and operable to communicate data signals with the data manager by way of the first data bus; a second volatile memory subsystem (508) coupled to the data manager using a second data bus, the second volatile memory subsystem operable to communicate data signals with the data manager by way of the second data bus; a non-volatile memory subsystem coupled to the data manager using a third data bus, the non-volatile memory subsystem operable to communicate data signals with the data manager by way of the third data bus; and a memory module controller operable to receive one or more commands from the memory controller of the host system, characterized in that in response to the one or more commands received from the memory controller of the host system, the memory module controller generates and transmits one or more control signals to the data manager, wherein, in response to the one or more control signals, the data manager transfers data between the first volatile memory subsystem and the memory controller of the host system, and, concurrently, transfers data signals from the non-volatile memory subsystem to the second volatile memory subsystem by way of the third data bus and the second data bus
Leak detector for checking the sealing tightness of an object to be tested, the leak detector comprising: - a detection inlet for connecting to an object to be tested, - a pumping device including: - a first rough vacuum pump (5; 19) including a first drive motor (21, 25), at least one first pumping stage (T1, T2) and one second pumping stage mounted in series between an inlet and an outlet, - at least one second rough vacuum pump (6; 20) including a second drive motor (23, 27), at least one first pumping stage (T1', T2') and one second pumping stage (T3') mounted in series between an inlet and an outlet, the inlets (12, 14) of the rough vacuum pumps (5, 6; 19, 20) being connected in parallel to the detection inlet by means of a first isolation valve, - a turbomolecular vacuum pump having an outlet connected between the first isolation valve and the inlets (12, 14) of the rough vacuum pumps (5, 6; 19, 20) by means of a second isolation valve, - a gas detector connected to the turbomolecular vacuum pump, characterized in that the outlet of the at least one second rough vacuum pump (6; 20) is connected to the first rough vacuum pump (5; 19), between two in-series pumping stages (T3, T4; T4, T5) of the first rough vacuum pump (5; 19). - a detection inlet for connecting to an object to be tested, - a pumping device including: - a first rough vacuum pump (5; 19) including a first drive motor (21, 25), at least one first pumping stage (T1, T2) and one second pumping stage mounted in series between an inlet and an outlet, - at least one second rough vacuum pump (6; 20) including a second drive motor (23, 27), at least one first pumping stage (T1', T2') and one second pumping stage (T3') mounted in series between an inlet and an outlet, the inlets (12, 14) of the rough vacuum pumps (5, 6; 19, 20) being connected in parallel to the detection inlet by means of a first isolation valve, - a turbomolecular vacuum pump having an outlet connected between the first isolation valve and the inlets (12, 14) of the rough vacuum pumps (5, 6; 19, 20) by means of a second isolation valve, - a first rough vacuum pump (5; 19) including a first drive motor (21, 25), at least one first pumping stage (T1, T2) and one second pumping stage mounted in series between an inlet and an outlet, - at least one second rough vacuum pump (6; 20) including a second drive motor (23, 27), at least one first pumping stage (T1', T2') and one second pumping stage (T3') mounted in series between an inlet and an outlet, the inlets (12, 14) of the rough vacuum pumps (5, 6; 19, 20) being connected in parallel to the detection inlet by means of a first isolation valve, - a turbomolecular vacuum pump having an outlet connected between the first isolation valve and the inlets (12, 14) of the rough vacuum pumps (5, 6; 19, 20) by means of a second isolation valve, - a gas detector connected to the turbomolecular vacuum pump,
A system (1, 1001, 2001, and 3001) comprising: a battery (10, 2010, 3010) comprising a physical load information acquisition component configured to acquire physical load information for the battery (10, 2010, 3010), and an information processing device, comprising: an output information acquisition component configured to acquire the physical load information from the battery (10, 2010, 3010); and a damage calculator configured to use information from the output information acquisition component to calculate a degree of damage to the battery (10, 2010, 3010), characterized in that the damage calculator has a physical load damage calculator configured to use the physical load information acquired by the output information acquisition component to calculate the degree of damage to the battery (10, 2010, 3010) due to physical load based on a previously obtained correlation between the physical load information and an amount of separation and breakage of structural components and support members of the battery (10, 2010, 3010). a battery (10, 2010, 3010) comprising a physical load information acquisition component configured to acquire physical load information for the battery (10, 2010, 3010), and an information processing device, comprising: an output information acquisition component configured to acquire the physical load information from the battery (10, 2010, 3010); and a damage calculator configured to use information from the output information acquisition component to calculate a degree of damage to the battery (10, 2010, 3010), an output information acquisition component configured to acquire the physical load information from the battery (10, 2010, 3010); and a damage calculator configured to use information from the output information acquisition component to calculate a degree of damage to the battery (10, 2010, 3010), characterized in that the damage calculator has a physical load damage calculator configured to use the physical load information acquired by the output information acquisition component to calculate the degree of damage to the battery (10, 2010, 3010) due to physical load based on a previously obtained correlation between the physical load information and an amount of separation and breakage of structural components and support members of the battery (10, 2010, 3010).
A method of applying a coating material to a substrate, comprising: providing a distribution manifold having a cavity and a plurality of dispensing outlets in fluid communication with the cavity; creating relative motion between a substrate and the dispensing outlets in a first direction; and dispensing coating material from the dispensing outlets while simultaneously translating the plurality of dispensing outlets in a second direction non-parallel to the first direction, wherein the distribution manifold is translated in the second direction, thereby translating the plurality of dispensing outlets in the second direction, characterized in that the plurality of dispensing outlets is comprised of a plurality of needle tubes in fluid communication with the cavity, wherein the distribution manifold further comprises an alignment bar for securing a relative spacing between each needle tube, and further wherein the relative spacing is substantially uniform. providing a distribution manifold having a cavity and a plurality of dispensing outlets in fluid communication with the cavity; creating relative motion between a substrate and the dispensing outlets in a first direction; and dispensing coating material from the dispensing outlets while simultaneously translating the plurality of dispensing outlets in a second direction non-parallel to the first direction, wherein the distribution manifold is translated in the second direction, thereby translating the plurality of dispensing outlets in the second direction, characterized in that the plurality of dispensing outlets is comprised of a plurality of needle tubes in fluid communication with the cavity, wherein the distribution manifold further comprises an alignment bar for securing a relative spacing between each needle tube, and further wherein the relative spacing is substantially uniform.
A separating rotor for a harvester comprising working tools (2, 3) projecting radially from the rotor and a hollow-cylindrical rotor base body to which holding elements are non-releasably fixed, to which holding elements the working tools can be releasably fixed, characterised in that provided in the rotor base body are recesses into which the holding elements are inserted.
A method of providing a wellbore junction assembly, the method comprising: connecting at least first and second tubular strings (24, 26) to a first opposite end of a tubular string connector with similarly dimensioned oriented connections, said oriented connections fixing a rotation of each of the tubular strings relative to the connector so that the tubular strings (24, 26) will be properly rotationally oriented relative to the connector when the tubular strings are connected, whereby the first and second tubular strings are interchangeably connectable to the connector by the oriented connections. connecting at least first and second tubular strings (24, 26) to a first opposite end of a tubular string connector with similarly dimensioned oriented connections, said oriented connections fixing a rotation of each of the tubular strings relative to the connector so that the tubular strings (24, 26) will be properly rotationally oriented relative to the connector when the tubular strings are connected, whereby the first and second tubular strings are interchangeably connectable to the connector by the oriented connections.
Method for re-configuring a communications device in which user profile data is maintained for access to a communications service platform, wherein user profile data relating to the communications device is stored on an authentication platform, and the user profile data is also stored in the communications device and in which: if the communications device detects that the user profile data is no longer stored in the communications device, the communications device generates a request (63,70) for re-authentication, and transmits the request to a reactivation server together with an identity associated with the communications device, on receipt of the request, the reactivation server retrieves stored user profile data associated with the communications device identity from the authentication platform and returns it to the communications device the communications device stores the retrieved user profile data. if the communications device detects that the user profile data is no longer stored in the communications device, the communications device generates a request (63,70) for re-authentication, and transmits the request to a reactivation server together with an identity associated with the communications device, on receipt of the request, the reactivation server retrieves stored user profile data associated with the communications device identity from the authentication platform and returns it to the communications device the communications device stores the retrieved user profile data.
An anti-SIRPα antibody or an antigen-binding fragment thereof, comprising heavy chain and light chain variable region complementarity determining regions (CDRs) CDR1, CDR2 and CDR3, wherein: a. HC VR CDR1 consists of the amino acid sequence HGIS, b. HC VR CDR2 consists of the amino acid sequence TIGTGVITYFASWAKG, c. HC VR CDR3 consists of the amino acid sequence GSAWNDPFDP, d. LC VR CDR1 consists of the amino acid sequence QASQSVYGNNDLA, e. LC VR CDR2 consists of the amino acid sequence LASTLAT, and f. LC VR CDR3 consists of the amino acid sequence LGGGDDEADNV, wherein the CDRs are determined according to Kabat numbering. a. HC VR CDR1 consists of the amino acid sequence HGIS, b. HC VR CDR2 consists of the amino acid sequence TIGTGVITYFASWAKG, c. HC VR CDR3 consists of the amino acid sequence GSAWNDPFDP, d. LC VR CDR1 consists of the amino acid sequence QASQSVYGNNDLA, e. LC VR CDR2 consists of the amino acid sequence LASTLAT, and f. LC VR CDR3 consists of the amino acid sequence LGGGDDEADNV,
Operating method for a preferably electronic compressed air processing device for connecting on the one hand to an air compressor that is automatically switchable to a no-load state by compressed air from the compressed air processing device and on the other hand to a compressed air system, wherein the compressed air processing device comprises a delivery device for connection to the air compressor, a first valve, a second valve, a third valve and a fourth valve, wherein from a no-load phase to a delivery phase the first valve and the third valve are switched to a blocked state ("0") and the second valve is switched to an opened state ("1") so that air from the compressed air system is fed back to the delivery device via the second valve and while bypassing the fourth valve.
A system for supplying power for drilling operations, the system comprising: a main powerhouse having an engine/generator, a mud pump and a mud drive thereat, said mud pump being driven by said mud drive, said mud drive being supplied with power from said engine/generator (108,110, 112), said engine/generator (108, 110, 112) having an output line (114, 116, 118) extending therefrom, said system comprising an AC or DC umbilical connected to the output line (114, 116, 118); and characterised in that the system further comprises a drill floor powerhouse having an energy storage system connected or interconnected to said umbilical such that power from said engine/generator (108, 110, 112) is directed to said energy storage system, said drill floor powerhouse having a load connected to said energy storage system such that power from said energy storage system is directly transferred to said load (146, 148, 150) such that power from said engine/generator (108, 110, 112) is isolated from said load (146, 148, 150), said engine/generator (108, 110, 112) having a capacity greater than an average power requirement of said load (146, 148, 150), said AC or DC umbilical (106, 206) having a capacity less than a maximum power requirement of said load (146, 148, 150), said main powerhouse being in spaced relationship to said drill floor powerhouse, said drill floor powerhouse being in moveable relationship to a fixed position of said main powerhouse; and in that an autotransformer (126, 218) is connected between said engine/generator (108, 110, 112) and said AC or DC umbilical (106, 206). a main powerhouse having an engine/generator, a mud pump and a mud drive thereat, said mud pump being driven by said mud drive, said mud drive being supplied with power from said engine/generator (108,110, 112), said engine/generator (108, 110, 112) having an output line (114, 116, 118) extending therefrom, said system comprising an AC or DC umbilical connected to the output line (114, 116, 118); and characterised in that the system further comprises a drill floor powerhouse having an energy storage system connected or interconnected to said umbilical such that power from said engine/generator (108, 110, 112) is directed to said energy storage system, said drill floor powerhouse having a load connected to said energy storage system such that power from said energy storage system is directly transferred to said load (146, 148, 150) such that power from said engine/generator (108, 110, 112) is isolated from said load (146, 148, 150), said engine/generator (108, 110, 112) having a capacity greater than an average power requirement of said load (146, 148, 150), said AC or DC umbilical (106, 206) having a capacity less than a maximum power requirement of said load (146, 148, 150), said main powerhouse being in spaced relationship to said drill floor powerhouse, said drill floor powerhouse being in moveable relationship to a fixed position of said main powerhouse; and in that
A medical device, comprising: a vascular access device, wherein the vascular access device includes a septum, an interior chamber, and a body; and a vent plug having a solid portion and a gas permeable hydrophobic portion that is in communication with the interior chamber and permits gas to escape from the interior chamber when the vent plug is not closed, but when the vent plug is closed the gas permeable portion is lodged within the body of the device such that only the solid portion of the vent plug is in communication with the interior chamber of the device, thereby preventing gas from escaping from the interior chamber; wherein actuation of the septum causes the septum to exert a force on the vent plug, causing the vent plug to close.