mhurhangee/ep-ind-claims huggingface dataset:
A system to collect hydrocarbons from a subterranean environment comprising: a well hole (30, 72) extending a predetermined depth sufficient to reach a hydrocarbon deposit; an air compressor configured to flow an air and fuel mixture into the well hole (30, 72); and a first packer plug configured to be driven into the well hole (30, 72) so it is situated at a distal end of the well hole (30, 72); a second packer plug configured to be driven in to the well hole (30, 72) on top of the air and fuel mixture, wherein the system is configured so that the weight of an aqueous mixture applies pressure to the second packer plug; a liquid pump that is configured to flow the aqueous mixture into the well hole (30, 72) to apply pressure to the air and fuel mixture to auto-detonate the air and fuel mixture; and wherein the system is configured to fracture the subterranean environment with the energy of the auto-detonation to allow recovery of a plurality of hydrocarbons in the hydrocarbon deposit from the well hole (30, 72). a well hole (30, 72) extending a predetermined depth sufficient to reach a hydrocarbon deposit; an air compressor configured to flow an air and fuel mixture into the well hole (30, 72); and a first packer plug configured to be driven into the well hole (30, 72) so it is situated at a distal end of the well hole (30, 72); a second packer plug configured to be driven in to the well hole (30, 72) on top of the air and fuel mixture, wherein the system is configured so that the weight of an aqueous mixture applies pressure to the second packer plug; a liquid pump that is configured to flow the aqueous mixture into the well hole (30, 72) to apply pressure to the air and fuel mixture to auto-detonate the air and fuel mixture; and wherein the system is configured to fracture the subterranean environment with the energy of the auto-detonation to allow recovery of a plurality of hydrocarbons in the hydrocarbon deposit from the well hole (30, 72).
A surgical obturator adapted to penetrate a body wall, comprising: an elongate shaft extending along an axis between a proximal end and a distal end; and a bladeless tip at the distal end of the shaft, the tip having a rounded distal end and further includes a conical surface, a first cylindrical surface and a second cylindrical surface; the conical surface is located between the first cylindrical surface and the second cylindrical surface; the second cylindrical surface being located distally of the conical surface, and the conical surface transitions distally into the second cylindrical surface; the second cylindrical surface extends to the rounded distal end of the tip, the first cylindrical surface is located proximally of the conical surface; the conical surface transitions proximally into the first cylindrical surface and wherein the tip further includes ridges, each extending radially outwardly from the second cylindrical surface and the conical surface. an elongate shaft extending along an axis between a proximal end and a distal end; and a bladeless tip at the distal end of the shaft, the tip having a rounded distal end and further includes a conical surface, a first cylindrical surface and a second cylindrical surface; the conical surface is located between the first cylindrical surface and the second cylindrical surface; the second cylindrical surface being located distally of the conical surface, and the conical surface transitions distally into the second cylindrical surface; the second cylindrical surface extends to the rounded distal end of the tip, the first cylindrical surface is located proximally of the conical surface; the conical surface transitions proximally into the first cylindrical surface and wherein the tip further includes ridges, each extending radially outwardly from the second cylindrical surface and the conical surface.
An adaptor assembly for coupling a blade root of a turbine blade to a root slot of a rotor disk, the adaptor assembly comprising: a turbine blade comprising a blade root; and an adaptor body comprising an adaptor root, the adaptor body defining a slot having an open end configured to receive the blade root of the turbine blade such that the adaptor root of the adaptor body and the blade root of the turbine blade are adjacent to one another when the blade root of the turbine blade is positioned within the slot, wherein the adaptor root includes a pair of axially extending tangs, the blade root including a pair of axially extending tangs, the pair of blade root tangs aligning with the pair of adaptor root tangs radially outermost from the rotor disk when the blade root is inserted, the root slot of the rotor disk including a top lobe and a bottom lobe, the top lobe configured to accept the blade root and the bottom lobe configured to accept the adaptor root, such that the adaptor root of the adaptor body and the blade root of the turbine blade are both configured to be received within the root slot of the rotor disk, and configured to make contact with the root slot of the rotor disk, and wherein the open end of the slot is at a radially outer portion of the adaptor body such that the blade root can be inserted in a radially inward direction. a turbine blade comprising a blade root; and an adaptor body comprising an adaptor root, the adaptor body defining a slot having an open end configured to receive the blade root of the turbine blade such that the adaptor root of the adaptor body and the blade root of the turbine blade are adjacent to one another when the blade root of the turbine blade is positioned within the slot, wherein the adaptor root includes a pair of axially extending tangs, the blade root including a pair of axially extending tangs, the pair of blade root tangs aligning with the pair of adaptor root tangs radially outermost from the rotor disk when the blade root is inserted, the root slot of the rotor disk including a top lobe and a bottom lobe, the top lobe configured to accept the blade root and the bottom lobe configured to accept the adaptor root, such that the adaptor root of the adaptor body and the blade root of the turbine blade are both configured to be received within the root slot of the rotor disk, and configured to make contact with the root slot of the rotor disk, and wherein the open end of the slot is at a radially outer portion of the adaptor body such that the blade root can be inserted in a radially inward direction.
Bearing cage or bearing cage segment for a rolling-element bearing, in which at least one selected part of a surface of the bearing cage or of the bearing cage segment is made of a selected material having a lipophobic and/or oleophobic property, wherein on the surface a predetermined surface region made of a non-lipophobic material is bounded on two mutually opposite sides by the selected material, characterized in that the predetermined surface region between the mutually opposite sides made of the selected material forms a channel of reduced width, along which a directed lubricant transport is effected due to a capillary effect.
A convective air pad with weight balancing and massage buffering effect, characterized in that: the convective air pad comprises a pad body, more than one convective air chamber integrally arranged on a surface side of said pad body, wherein each said convective air chamber is filled with gas, wherein said convective air chamber comprises a plurality of airbag members, a convective channel connected between each two adjacently positioned airbag members, and a ventilation gap provided between each two adjacently positioned airbag members.
A method of testing a circuit assembly, the method comprising: configuring a first component on the circuit assembly to generate a first signal on a first pin (215, 220) of the first component; placing a probe adjacent a second component on the circuit assembly; performing time domain analysis of a second signal, the second signal being capacitively coupled from the second component to the probe, wherein the time domain analysis of the second signal comprises comparing a portion of the second signal to a learned signal obtained during a learn phase; and indicating a test result based on the time domain analysis of the second signal. configuring a first component on the circuit assembly to generate a first signal on a first pin (215, 220) of the first component; placing a probe adjacent a second component on the circuit assembly; performing time domain analysis of a second signal, the second signal being capacitively coupled from the second component to the probe, wherein the time domain analysis of the second signal comprises comparing a portion of the second signal to a learned signal obtained during a learn phase; and indicating a test result based on the time domain analysis of the second signal.
A method of performing communication in a telecommunication system including a user equipment, a radio access network, an access and mobility management function and a user plane function, comprising the steps of: - at the access and mobility management function, receiving from the user equipment a Non-Access Stratum, NAS, packet data unit, PDU, carrying uplink data, wherein the uplink data includes infrequent small data; - at the access and mobility management function, after receiving NAS message from the user equipment, transmitting the uplink data to the user plane function, wherein the NAS PDU encapsulates a PDU session ID or Single-Network Assistance Slice Selection Information, S-NASSI, wherein the access and mobility management function transmits the uplink data to the user plane function via an interface (Nx) between the access and mobility management function and the user plane function, wherein the access and mobility management function transmits the uplink data to the user plane function via a session management function of the telecommunication system, wherein, upon receiving the NAS PDU from the user equipment, the access and mobility management function transmits a PDU session create request to the session management function, wherein the PDU session create request includes the uplink data, wherein the PDU session create request contains a PDU session ID, Data Network Name, DNN, and/or Single-Network Assistance Slice Selection Information, S-NASSI, wherein, when receiving a PDU session create request including the DNN and the S-NASSI, the session management function selects the user plane function based on the DNN and the S-NSSAI. - at the access and mobility management function, receiving from the user equipment a Non-Access Stratum, NAS, packet data unit, PDU, carrying uplink data, wherein the uplink data includes infrequent small data; - at the access and mobility management function, after receiving NAS message from the user equipment, transmitting the uplink data to the user plane function, wherein the NAS PDU encapsulates a PDU session ID or Single-Network Assistance Slice Selection Information, S-NASSI, wherein the access and mobility management function transmits the uplink data to the user plane function via an interface (Nx) between the access and mobility management function and the user plane function, wherein the access and mobility management function transmits the uplink data to the user plane function via a session management function of the telecommunication system, wherein, upon receiving the NAS PDU from the user equipment, the access and mobility management function transmits a PDU session create request to the session management function, wherein the PDU session create request includes the uplink data, wherein the PDU session create request contains a PDU session ID, Data Network Name, DNN, and/or Single-Network Assistance Slice Selection Information, S-NASSI, wherein, when receiving a PDU session create request including the DNN and the S-NASSI, the session management function selects the user plane function based on the DNN and the S-NSSAI.
An apparatus to transmit pilots efficiently to achieve good performance while reducing pilot overhead comprising: processor means for determining an assignment of resources, including frames, H-ARQ interlaces and sub-carriers, for transmission in a wireless communication system; and means for determining pilot placements based on the assignment of resources, characterised in that different pilot placements are used for different assignments of resources that correspond to different number of frames, different numbers of H-ARQ interlaces or different numbers of sub-carriers; wherein the assignment is for at least two consecutive H-ARQ interlace and wherein the means for determining pilot placements are configured to determine a placement of at least one pilot in each of the H-ARQ interlaces based on the placement of pilots in preceding H-ARQ interlaces: and wherein the assignment comprises at least one frame, each frame spanning a predetermined time duration. processor means for determining an assignment of resources, including frames, H-ARQ interlaces and sub-carriers, for transmission in a wireless communication system; and means for determining pilot placements based on the assignment of resources, characterised in that different pilot placements are used for different assignments of resources that correspond to different number of frames, different numbers of H-ARQ interlaces or different numbers of sub-carriers; wherein the assignment is for at least two consecutive H-ARQ interlace and wherein the means for determining pilot placements are configured to determine a placement of at least one pilot in each of the H-ARQ interlaces based on the placement of pilots in preceding H-ARQ interlaces: and wherein the assignment comprises at least one frame, each frame spanning a predetermined time duration.
A memory module comprising: a first storage unit (1150; 150) coupled to a central processing unit, CPU, (1130; 130) through a first bus having a first bit width; a second storage unit (1160; 160) coupled to the first storage unit (1150; 150) through a second bus having a bit width smaller than the first bit width; and an access control circuit (1140; 140) configured, when a request to save context information of a task is received by an interrupt, to write context information transferred from the CPU (1130; 130) in one cycle through the first bus, a context number identifying the context information, and a link context number identifying context information transferred from the CPU (1130; 130) at the time of a previous interrupt to the first storage unit (1150; 150), wherein after writing to the first storage unit (1150; 150), the access control circuit (1140; 140) transfers data comprising the context information and the link context number stored in the first storage unit (1150; 150) to an address of the second storage unit (1160; 160) through the second bus in a plurality of cycles, the address corresponding to the context number stored in the first storage unit (1150; 150). a first storage unit (1150; 150) coupled to a central processing unit, CPU, (1130; 130) through a first bus having a first bit width; a second storage unit (1160; 160) coupled to the first storage unit (1150; 150) through a second bus having a bit width smaller than the first bit width; and an access control circuit (1140; 140) configured, when a request to save context information of a task is received by an interrupt, to write context information transferred from the CPU (1130; 130) in one cycle through the first bus, a context number identifying the context information, and a link context number identifying context information transferred from the CPU (1130; 130) at the time of a previous interrupt to the first storage unit (1150; 150), wherein after writing to the first storage unit (1150; 150), the access control circuit (1140; 140) transfers data comprising the context information and the link context number stored in the first storage unit (1150; 150) to an address of the second storage unit (1160; 160) through the second bus in a plurality of cycles, the address corresponding to the context number stored in the first storage unit (1150; 150).
An aldose reductase inhibitor for use in: (a) a method of treating galactosemia or preventing complications associated with galactosemia, comprising administering a therapeutically effective amount of the aldose reductase inhibitor to a subject in need thereof; (b) a method of reducing the amount or level of galactitol in a subject with galactosemia, comprising administering a therapeutically effective amount of the aldose reductase inhibitor to the subject; or (c) a method for treating cataracts, comprising administering a therapeutically effective amount of an aldose reductase inhibitor to a subject in need thereof, optionally where the subject in need thereof has galactosemia, wherein the aldose reductase inhibitor is a compound of Formula: or a pharmaceutically acceptable salt thereof, wherein, R 1 is CO 2 R 2; R 2 is H, (C 1 -C 6)-alkyl, (C 1 -C 6)-hydroxyalkyl, or (C 1 -C 6)-aminoalkyl; X 1 is H or halogen; X 2 is H or halogen; Y is a bond, C=O, C=S, C=NH, or C=N(C 1 -C 4)-alkyl; Z is A 1 is NR 7, O, S or CH 2; A 2 is N or CH; A 3 is NR 7, O, or S; R 3 through R 6 are independently hydrogen, halogen, cyano, acyl, haloalkyl, haloalkoxy, haloalkylthio, trifluoroacetyl, (C 1 -C 4)-alkyl, (C 1 -C 4)-alkoxy, (C 1 -C 4)-alkylthio, (C 1 -C 4)-alkylsulfinyl, or (C 1 -C 4)-alkylsulfonyl; and R 7 is hydrogen, C 1 -C 4 -alkyl, or C O-(C 1 -C 4)-alkyl. (a) a method of treating galactosemia or preventing complications associated with galactosemia, comprising administering a therapeutically effective amount of the aldose reductase inhibitor to a subject in need thereof; (b) a method of reducing the amount or level of galactitol in a subject with galactosemia, comprising administering a therapeutically effective amount of the aldose reductase inhibitor to the subject; or (c) a method for treating cataracts, comprising administering a therapeutically effective amount of an aldose reductase inhibitor to a subject in need thereof, optionally where the subject in need thereof has galactosemia, R 1 is CO 2 R 2; R 2 is H, (C 1 -C 6)-alkyl, (C 1 -C 6)-hydroxyalkyl, or (C 1 -C 6)-aminoalkyl; X 1 is H or halogen; X 2 is H or halogen; Y is a bond, C=O, C=S, C=NH, or C=N(C 1 -C 4)-alkyl; Z is A 1 is NR 7, O, S or CH 2; A 2 is N or CH; A 3 is NR 7, O, or S; R 3 through R 6 are independently hydrogen, halogen, cyano, acyl, haloalkyl, haloalkoxy, haloalkylthio, trifluoroacetyl, (C 1 -C 4)-alkyl, (C 1 -C 4)-alkoxy, (C 1 -C 4)-alkylthio, (C 1 -C 4)-alkylsulfinyl, or (C 1 -C 4)-alkylsulfonyl; and R 7 is hydrogen, C 1 -C 4 -alkyl, or C O-(C 1 -C 4)-alkyl.
A process for oxidation of a gas (8,1) comprising at least 0.05 vol% hydrogen sulfide and at least 0.05 vol% of the sum of carbon monoxide, carbonyl sulfide and carbon disulfide and at least an amount of oxygen sufficient for complete oxidation of H 2 S and CS 2, optionally in combination with a hot gas comprising the steps of (a) directing said gas optionally in combination with said hot gas to contact, at a first temperature, a first material, comprising one or more oxides of a metal taken from the group consisting of vanadium, chromium, tungsten, molybdenum, cerium, and niobium, on a support comprising silicon carbide or one or more oxides of metals taken from the group of aluminum, silicon and titanium, providing a heated and partially oxidized gas, and (b) directing said heated and partially oxidized gas to contact, at a second higher temperature, a second material different from said first material, comprising a platinum group metal, preferably palladium, in combination with one or more oxides of a metal taken from the group consisting of vanadium, chromium, tungsten, molybdenum, cerium, and niobium, on a support comprising silicon carbide or one or more oxides of metals taken from the group of aluminum, silicon and titanium, providing an incinerated gas. (a) directing said gas optionally in combination with said hot gas to contact, at a first temperature, a first material, comprising one or more oxides of a metal taken from the group consisting of vanadium, chromium, tungsten, molybdenum, cerium, and niobium, on a support comprising silicon carbide or one or more oxides of metals taken from the group of aluminum, silicon and titanium, providing a heated and partially oxidized gas, and (b) directing said heated and partially oxidized gas to contact, at a second higher temperature, a second material different from said first material, comprising a platinum group metal, preferably palladium, in combination with one or more oxides of a metal taken from the group consisting of vanadium, chromium, tungsten, molybdenum, cerium, and niobium, on a support comprising silicon carbide or one or more oxides of metals taken from the group of aluminum, silicon and titanium, providing an incinerated gas.
A composition of inorganic nanoparticles, for its surgical use as gluing agent or adhesive, for adhering one first biological tissue and one second biological tissue, or for adhering one biological tissue and at least one other article, wherein the composition of nanoparticles is selected from a powder and an aqueous suspension, or aqueous dispersion or aqueous solution, of nanoparticles, wherein the composition of nanoparticles contains no more than 20% by weight of other gluing agent as compared to the weight of the dry matter of the composition.
Sheet metal having a deterministic surface structure, the surface structure being impressed into the sheet metal, the surface structure having at least one peak region (1.1) and at least one valley region (1.2), the peak region (1.1) and the valley region (1.2) being joined by a flank region (1.3), the peak region (1.1) and/or the valley region (1.2) having a substructure (1.11, 1.21), characterized in that the substructure (1.11, 1.21) has a surface area greater by at least 3% in comparison to a flat projection face of the peak region (1.1) and/or of the valley region (1.2) or having an Sdr of at least 3%.
Arrangement for connecting a field device to a field bus, comprising a first and second connection module (1, 2), wherein the first connection module comprises a first and second connection means (3, 4), wherein the first connection means is used to mechanically connect the first connection module to the field device, the second connection means is used to mechanically fix two field bus lines (6, 7) to the first connection module and to bring a line shield of each of the two field bus lines (6, 7) into electrical contact with a shield connection conductor, wherein the second connection module can be mechanically and electrically connected to the field device separately from the first connection module, wherein the second connection module comprises a connection means (210, 220, 230), by means of which cables (61, 62, 71, 72) of the two field bus lines (6, 7) can be mechanically and electrically connected to the second connection module, wherein the second connection module is designed such that in the mechanically connected state of the second connection module to the field device, the cables (61, 62, 71, 72) are connected to the field device in an electrically conductive manner, characterised in that the second connection module is designed to connect the field bus lines (6, 7) for communication in a state separate from a basic module of the field device.