mhurhangee/patent-ind-claim-en huggingface dataset:
An internal combustion engine comprising: - a crankcase comprising an oil sump containing an oil reservoir ; - a dipstick tube comprising a first passageway , and - a pump being characterized in - that an oil circulation circuit is fluidly coupled to the oil reservoir ; - that an oil treatment apparatus is operably coupled to the oil circulation circuit ; - that the pump is operably coupled to the oil circulation circuit and is configured to flow oil from the oil reservoir through the oil circulation circuit ; and - that the first passageway of the dipstick tube forms a portion of the oil circulation circuit . - a crankcase comprising an oil sump containing an oil reservoir ; - a dipstick tube comprising a first passageway , and - a pump being characterized in - that an oil circulation circuit is fluidly coupled to the oil reservoir ; - that an oil treatment apparatus is operably coupled to the oil circulation circuit ; - that the pump is operably coupled to the oil circulation circuit and is configured to flow oil from the oil reservoir through the oil circulation circuit ; and - that the first passageway of the dipstick tube forms a portion of the oil circulation circuit .
Optical device , intended to be arranged on a detector equipped with an infrared sensor in order to increase the angle of the field of view of the detector, comprising: - a primary mirror of circular overall shape, comprising a circular opening at its centre, - a secondary mirror of circular overall shape and of diameter smaller than the diameter of the primary mirror, comprising a circular opening at its centre, - at least one connecting means for connecting the primary mirror and the secondary mirror, so as to arrange the reflective surface of the primary mirror facing the reflective surface of the secondary mirror , the primary and secondary mirrors being designed to reflect radiation in the infrared; and the primary mirror and the secondary mirror being configured to form an afocal system and to form a continuous very wide-angle image with the centre of the image obtained by the central circular openings, the angle (α) of the field of view of the device being greater than 90°. - a primary mirror of circular overall shape, comprising a circular opening at its centre, - a secondary mirror of circular overall shape and of diameter smaller than the diameter of the primary mirror, comprising a circular opening at its centre, - at least one connecting means for connecting the primary mirror and the secondary mirror, so as to arrange the reflective surface of the primary mirror facing the reflective surface of the secondary mirror , the primary and secondary mirrors being designed to reflect radiation in the infrared; and the primary mirror and the secondary mirror being configured to form an afocal system and to form a continuous very wide-angle image with the centre of the image obtained by the central circular openings, the angle (α) of the field of view of the device being greater than 90°.
Cover for a storage receptacle , in particular for a waste receptacle, comprising - a base body which is of frame-like configuration and can be placed detachably on an edge of an upper opening of a housing of the storage receptacle , the base body having two lateral frame parts and a front frame part and a rear frame part , which have a cross-section which is downwardly open and is at least in parts substantially U-shaped, the frame parts having a web , which forms an upper face of the base body , and two substantially parallel legs , which project downwards after assembly with the upper edge region of the housing between them, - at least one cover part which is hingedly mounted on the base body in such a way that it can be pivoted inwards from a closed position, in which it can close the upper opening of the housing of the receptacle , into an open position, in which it can uncover the opening, - retaining means for retaining the cover part in the open position, characterised in that the retaining means comprises two pairs of retaining projections , which are formed on an underside of the cover part , wherein an intermediate space is formed between the retaining projections of each of the two pairs of retaining projections , in each of which a retaining portion formed on the base body can frictionally engage, and in that the inner faces of the legs are connected to one another by a plurality of reinforcing ribs which extend parallel to one another but not as far as the lower ends of the legs . - a base body which is of frame-like configuration and can be placed detachably on an edge of an upper opening of a housing of the storage receptacle , the base body having two lateral frame parts and a front frame part and a rear frame part , which have a cross-section which is downwardly open and is at least in parts substantially U-shaped, the frame parts having a web , which forms an upper face of the base body , and two substantially parallel legs , which project downwards after assembly with the upper edge region of the housing between them, - at least one cover part which is hingedly mounted on the base body in such a way that it can be pivoted inwards from a closed position, in which it can close the upper opening of the housing of the receptacle , into an open position, in which it can uncover the opening, - retaining means for retaining the cover part in the open position, characterised in that the retaining means comprises two pairs of retaining projections , which are formed on an underside of the cover part , wherein an intermediate space is formed between the retaining projections of each of the two pairs of retaining projections , in each of which a retaining portion formed on the base body can frictionally engage, and in that the inner faces of the legs are connected to one another by a plurality of reinforcing ribs which extend parallel to one another but not as far as the lower ends of the legs .
A server device comprising: a first interface configured to transmit a request message for requesting a profile from a profile generation server , and to receive a plurality of packets corresponding to the profile and associated with installation of the profile on an embedded SIM, eSIM, in response to the request message; a processor configured to generate an image file corresponding to the profile from the plurality of packets; an authentication module configured to authenticate an electronic device including an eSIM, on which the profile is to be installed; and a second interface configured to connect the server device to the electronic device , and to transmit the image file to the electronic device , if the electronic device is authenticated. a first interface configured to transmit a request message for requesting a profile from a profile generation server , and to receive a plurality of packets corresponding to the profile and associated with installation of the profile on an embedded SIM, eSIM, in response to the request message; a processor configured to generate an image file corresponding to the profile from the plurality of packets; an authentication module configured to authenticate an electronic device including an eSIM, on which the profile is to be installed; and a second interface configured to connect the server device to the electronic device , and to transmit the image file to the electronic device , if the electronic device is authenticated.
A method for wireless communication by a transmitting entity, comprising: signaling , to a receiving entity, information regarding a relationship between beams used for data and control transmissions to the receiving entity, wherein the information indicates a measure of correlation between beam shapes applied in control and data regions and wherein the information indicates an assumed degree of quasi-colocation, QCL, between the beams used for data and control transmission; and sending the data and control transmissions using the beams. signaling , to a receiving entity, information regarding a relationship between beams used for data and control transmissions to the receiving entity, wherein the information indicates a measure of correlation between beam shapes applied in control and data regions and wherein the information indicates an assumed degree of quasi-colocation, QCL, between the beams used for data and control transmission; and sending the data and control transmissions using the beams.
Process for the preparation of compounds of the formula (I) in which firstly compounds of the formula (II) are prepared and these are then converted in a manner known per se into compounds of the formula (I), where Rf is a fluorinated, linear or branched alkyl group, optionally containing further heteroatoms, R is a linear or branched alkyl or siloxane group, optionally containing heteroatoms, or a group Rf', and Rf` is a fluorinated, linear or branched alkyl group, optionally containing further heteroatoms. are prepared and these are then converted in a manner known per se into compounds of the formula (I), where Rf is a fluorinated, linear or branched alkyl group, optionally containing further heteroatoms, R is a linear or branched alkyl or siloxane group, optionally containing heteroatoms, or a group Rf', and Rf` is a fluorinated, linear or branched alkyl group, optionally containing further heteroatoms.
A high Cr Ni-based alloy welding wire comprising, by mass, C: 0.04% or less, Mn: 7% or less, Fe: 1 to 12%, Si: 0.75% or less, Al: 0.01 to 0.7%, Ti: 0.01 to 0.7%, Cr: 25.0 to 31.5%, Ta: 1 to 10%, and Mo: 1 to 6%, and N:0.1% or less, and as inevitable impurities, P: 0.02% or less, O: 0.01% or less, S: 0.0015% or less, H: 0.0015% or less, Cu: 0.08% or less, and Co: 0.05% or less, and the balance: Ni, contents of S, Ta, Al, Ti, Mo, and N satisfying the following relations and : 12000 S + 0.58 Ta − 2.6 Al − 2 Ti ≤ 19.3 Ta + 1.6 Mo + 187 N ≥ 5.7 wherein optionally the inevitable impurities further comprise: Ca and Mg, and the total content of Ca and Mg is less than 0.002 mass %; optionally the high Cr Ni-based alloy welding wire further comprises by mass Nb: 0.5% or less; the contents of S, Ta, Nb, Al, Ti, Ta, Mo, and N satisfying the following relations and : 12000 S + 0.58 Ta + 2.1 Nb − 2.6 Al − 2 Ti ≤ 19.3 Ta + 3.8 Nb + 1.6 Mo + 187 N ≥ 5.7 and optionally the high Cr Ni-based alloy welding wire further comprises by mass at least one kind of element selected from B, Zr, and rare earth elements: 0.02% or less.
An uplink channel receiving method, comprising: transmitting , by a base station, reserved power information of a first transmission time interval, TTI, and reserved power information of a second TTI to user equipment, UE; or transmitting reserved power information of a second TTI to the UE; and receiving , by the base station, the L uplink channels transmitted by the UE, wherein the L uplink channels comprise at least k second channels in m second channels, 1 ≤ k ≤ m, the second channel is an uplink channel on the second time unit numbered j, duration of the first time unit is the first TTI, duration of the second time unit is the second TTI, and duration of the second TTI is shorter than duration of the first TTI, wherein a first channel on at least one first time unit numbered i and a second channel on at least one second time unit numbered j overlap, characterized in that there is a maximum uplink transmission time difference between the n first time units numbered i and the m second time units numbered j, wherein the maximum uplink transmission time difference is a maximum value in (n×m) differences, and the (n×m) differences are modulus values obtained after performing, for each of (m-1) second channels in the m second channels other than the second channel, subtraction between an start transmission time point of the first time unit numbered i in which each of the n first channels is located and a start transmission time point of the second time unit numbered j in which a second channel in the m second channels is located. transmitting , by a base station, reserved power information of a first transmission time interval, TTI, and reserved power information of a second TTI to user equipment, UE; or transmitting reserved power information of a second TTI to the UE; and receiving , by the base station, the L uplink channels transmitted by the UE, wherein the L uplink channels comprise at least k second channels in m second channels, 1 ≤ k ≤ m, the second channel is an uplink channel on the second time unit numbered j, duration of the first time unit is the first TTI, duration of the second time unit is the second TTI, and duration of the second TTI is shorter than duration of the first TTI, wherein a first channel on at least one first time unit numbered i and a second channel on at least one second time unit numbered j overlap, characterized in that there is a maximum uplink transmission time difference between the n first time units numbered i and the m second time units numbered j, wherein the maximum uplink transmission time difference is a maximum value in (n×m) differences, and the (n×m) differences are modulus values obtained after performing, for each of (m-1) second channels in the m second channels other than the second channel, subtraction between an start transmission time point of the first time unit numbered i in which each of the n first channels is located and a start transmission time point of the second time unit numbered j in which a second channel in the m second channels is located.
Device for detecting a sudden pressure variation in a fluid, comprising: - a housing open at one of its ends, - a wall closing the housing to create a chamber , the wall being porous, and the device characterized in that the porosity of the wall is chosen to balance the internal and external pressures of the chamber slowly, so that when the external pressure outside the chamber is substantially stable or varies slowly, the internal pressure of the chamber is close to the external pressure, and when the variation of the external pressure outside the chamber is sudden, the wall ruptures when it is subjected to a predetermined difference between the external pressure and the internal pressure. - a housing open at one of its ends, - a wall closing the housing to create a chamber ,
Brake arrangement having a brake shield and a brake anchor plate with a supporting pin , wherein the brake shield and the supporting pin are connected in a rotationally fixed manner to each other by a preferably circumferential joining connection , wherein the supporting pin and the brake shield have intermeshing wedge profiles , characterized in that the joining connection has a press connection there and additionally a caulking at the press connection .
Device for connecting a drain to an outlet pipe, the device comprising: - a flexible sleeve ; and - a form-retaining peripheral flange which is arranged on the sleeve , characterized in that a sealing membrane is arranged on the form-retaining peripheral flange , and the form-retaining peripheral flange is formed by a ring vulcanized onto the sealing membrane connecting the flexible sleeve to the sealing membrane . - a flexible sleeve ; and - a form-retaining peripheral flange which is arranged on the sleeve , characterized in that a sealing membrane is arranged on the form-retaining peripheral flange , and the form-retaining peripheral flange is formed by a ring vulcanized onto the sealing membrane connecting the flexible sleeve to the sealing membrane .
A method of applying an address space to data storage, comprising: distributing user data throughout a plurality of storage nodes through erasure coding, wherein the plurality of storage nodes are housed within a chassis that couples the storage nodes as a cluster, each of the plurality of storage nodes having non-volatile solid-state memory ; receiving a plurality of portions of user data for storage; assigning to each successive one of the plurality of portions of user data one of a plurality of sequential, nonrepeating addresses of an address space, the sequential nonrepeating addresses having a range that exceeds application of the sequential, nonrepeating addresses in a lifespan of the non-volatile solid-state memory ; translating file paths of the plurality of portions of user data to inode identifiers; translating the inode identifiers to medium addresses, wherein the address space includes the medium address space; translating medium addresses of the plurality of portions of user data to segment addresses of the plurality of portions of user data in a segment address space, wherein the address space includes the segment address space; assigning each segment address to a data segment; separating each data segment into data shards; translating the segment address to a virtual allocation unit; assigning the virtual allocation unit to a data shard;. translating the virtual allocation unit to a physical flash memory location; tracking the translations with address translation tables; and writing each of the plurality of portions of user data to the non-volatile solid-state memory . distributing user data throughout a plurality of storage nodes through erasure coding, wherein the plurality of storage nodes are housed within a chassis that couples the storage nodes as a cluster, each of the plurality of storage nodes having non-volatile solid-state memory ; receiving a plurality of portions of user data for storage; assigning to each successive one of the plurality of portions of user data one of a plurality of sequential, nonrepeating addresses of an address space, the sequential nonrepeating addresses having a range that exceeds application of the sequential, nonrepeating addresses in a lifespan of the non-volatile solid-state memory ; translating file paths of the plurality of portions of user data to inode identifiers; translating the inode identifiers to medium addresses, wherein the address space includes the medium address space; translating medium addresses of the plurality of portions of user data to segment addresses of the plurality of portions of user data in a segment address space, wherein the address space includes the segment address space; assigning each segment address to a data segment; separating each data segment into data shards; translating the segment address to a virtual allocation unit; assigning the virtual allocation unit to a data shard;. translating the virtual allocation unit to a physical flash memory location; tracking the translations with address translation tables; and writing each of the plurality of portions of user data to the non-volatile solid-state memory .
An apparatus for automatic liquid transfer optimization pipetting, comprising: a pump; a pipette tip in fluid communication with the pump, the pipette tip comprising a conduit with a working air pressure, wherein the working air pressure of the conduit is relative to ambient pressure outside of the conduit, the working air pressure having an upper threshold and a lower threshold; a pressure sensor connected to the conduit, the pressure sensor being adapted to measure the working air pressure, the ambient air pressure outside of the conduit, and changes to the working air pressure caused by aspiration or dispensation of a liquid by the pipette tip; a controller in electrical communication with the pump and the pressure sensor, wherein the controller receives input from the pressure sensor, commands a velocity of the pump, and maintains the working air pressure at or below the upper threshold or at or above the lower threshold by adjustment of the velocity of the pump during aspiration or dispensation of a liquid by the pipette tip; and a frame and an actuator fixed to the frame and in electrical communication with the controller, wherein the actuator is operatively connected to the pump and the pipette tip and adapted to control movement of the pump, the pipette tip, or both. a pump; a pipette tip in fluid communication with the pump, the pipette tip comprising a conduit with a working air pressure, wherein the working air pressure of the conduit is relative to ambient pressure outside of the conduit, the working air pressure having an upper threshold and a lower threshold; a pressure sensor connected to the conduit, the pressure sensor being adapted to measure the working air pressure, the ambient air pressure outside of the conduit, and changes to the working air pressure caused by aspiration or dispensation of a liquid by the pipette tip; a controller in electrical communication with the pump and the pressure sensor, wherein the controller receives input from the pressure sensor, commands a velocity of the pump, and maintains the working air pressure at or below the upper threshold or at or above the lower threshold by adjustment of the velocity of the pump during aspiration or dispensation of a liquid by the pipette tip; and a frame and an actuator fixed to the frame and in electrical communication with the controller, wherein the actuator is operatively connected to the pump and the pipette tip and adapted to control movement of the pump, the pipette tip, or both.
Saprophytic live bacteria mixture originating from the axillia of a human donor not suffering from Hidradenitis Suppurativa and who is having no previous record of dermatological diseases or other systemic diseases, which potentially could affect the cutaneous microbiome of the donor, for use in topical treatment of Hidradenitis Suppurativa in intertriginous skin areas of a human subject, wherein said saprophytic live bacteria mixture comprises at least the following: Corynebacterium spp, Acinetobacter spp, Moraxella spp, Staphylococcus spp, Anaerococcus spp and Propionibacterium spp, wherein the Propionibacterium spp of the mixture is dominated by Propionibacterium acnes and with the proviso that the mixture does not contain Porphyromonas and Peptoniphilus spp
A medical device, comprising: a sensing circuit configured to sense a cardiac signal; a power source; and a control circuit comprising a processor powered by the power source, wherein the control circuit is configured to: operate in a normal state by waking up the processor at a first rate to analyze the cardiac signal for determining a state of an arrhythmia; switch from the normal state to a power saving state that uses less electrical power from the power source than the normal state in determining the state of the arrhythmia; and operate in the power saving state by waking up the processor at a second rate to analyze the cardiac signal for determining the state of the arrhythmia, the second rate being less than the first rate. a sensing circuit configured to sense a cardiac signal; a power source; and a control circuit comprising a processor powered by the power source, wherein the control circuit is configured to: operate in a normal state by waking up the processor at a first rate to analyze the cardiac signal for determining a state of an arrhythmia; switch from the normal state to a power saving state that uses less electrical power from the power source than the normal state in determining the state of the arrhythmia; and operate in the power saving state by waking up the processor at a second rate to analyze the cardiac signal for determining the state of the arrhythmia, the second rate being less than the first rate. operate in a normal state by waking up the processor at a first rate to analyze the cardiac signal for determining a state of an arrhythmia; switch from the normal state to a power saving state that uses less electrical power from the power source than the normal state in determining the state of the arrhythmia; and operate in the power saving state by waking up the processor at a second rate to analyze the cardiac signal for determining the state of the arrhythmia, the second rate being less than the first rate.