mhurhangee/ep-ind-claims huggingface dataset:
A tool for forming a dental restoration, the tool comprising: a mold body configured to provide a customized fit with at least one tooth of a patient, a single piece of the mold body including an aperture (104a, 104b) configured to align with a portion of a surface of a tooth to be restored of the at least one tooth, wherein the mold body is configured to combine with the tooth to be restored to define a mold cavity encompassing at least a portion of a desired tooth structure of the tooth to be restored, wherein a shape of the aperture (104a, 104b) defines a shape of the portion of the desired tooth structure, wherein the aperture (104a, 104b) is configured to allow placement and flow of a restorative material into the mold cavity to cover the portion of the surface of the tooth to be restored, wherein the aperture is configured to align with at least 20% of the surface of the tooth to be restored. a mold body configured to provide a customized fit with at least one tooth of a patient, a single piece of the mold body including an aperture (104a, 104b) configured to align with a portion of a surface of a tooth to be restored of the at least one tooth, wherein the mold body is configured to combine with the tooth to be restored to define a mold cavity encompassing at least a portion of a desired tooth structure of the tooth to be restored, wherein a shape of the aperture (104a, 104b) defines a shape of the portion of the desired tooth structure, wherein the aperture (104a, 104b) is configured to allow placement and flow of a restorative material into the mold cavity to cover the portion of the surface of the tooth to be restored, wherein the aperture is configured to align with at least 20% of the surface of the tooth to be restored.
A pre-stretcher for a thermoforming device and configured for pre-stretching a polymeric material by moving along a first direction relative to the polymeric material, the pre-stretcher comprising body that includes a shell member that defines an outer surface of the pre-stretcher, the pre-stretcher being composed of one or more segments (S1, S2), each segment having associated therewith an axis (A, A1, A2) parallel to the first direction and each segment comprising: an inner member (104, 104') spaced apart from the shell member; and at least one connecting member (106, 206) connecting the inner member to the shell member; wherein the inner member of at least one segment comprises a coupling member (107, 107') for allowing the pre-stretcher to be coupled to a shaft or plate of the thermoforming device, and wherein the shell member surrounds the inner members of the one or more segments; wherein, for each segment, the shell member, the inner member, and the at least one connecting member delimit an inner space filled with a gaseous medium within the pre-stretcher; characterized in that at least one of the inner member(s), shell member, and connecting member(s) is/are made from syntactic foam, wherein the syntactic foam(s) of the inner member(s), shell member, and connecting member(s), is/are composed of hollow microspheres and a binding agent for binding the microspheres. an inner member (104, 104') spaced apart from the shell member; and at least one connecting member (106, 206) connecting the inner member to the shell member; wherein the inner member of at least one segment comprises a coupling member (107, 107') for allowing the pre-stretcher to be coupled to a shaft or plate of the thermoforming device, and wherein the shell member surrounds the inner members of the one or more segments; wherein, for each segment, the shell member, the inner member, and the at least one connecting member delimit an inner space filled with a gaseous medium within the pre-stretcher; characterized in that at least one of the inner member(s), shell member, and connecting member(s) is/are made from syntactic foam, wherein the syntactic foam(s) of the inner member(s), shell member, and connecting member(s), is/are composed of hollow microspheres and a binding agent for binding the microspheres.
A method for operating a compression ignition internal combustion engine including at least one combustion chamber with a fuel injector for direct fuel injection into a combustion chamber, an electronic control unit for controlling the fuel injector, and a glow plug for assisting compression ignition of the fuel and combustion air mixture supplied to the combustion chamber in a start phase, said method comprising the steps of: - supplying the combustion air to the combustion chamber in an engine intake stroke; - performing a start-up-pilot injection by injecting a start-up pilot fuel quantity by means of the fuel injector into the combustion air supplied to the combustion chamber during a cold start of the internal combustion engine, said start-up pilot injection forming a homogeneous, lean air/fuel mixture in substantially the entire combustion chamber; and - performing a stratified fuel injection by injecting a second fuel quantity into the combustion chamber during a compression stroke directly before the ignition time, said stratified fuel injection (M, P1; P2; P3) being carried out as a multiple injection, comprising at least one pilot injection and a main injection, each forming a stratified, rich air/fuel mixture in the region of the glow plug and autoigniting the stratified rich air/fuel mixture at a predetermined ignition time during the compression stroke after any one of the stratified fuel injections; the method being characterised in that the start-up pilot injection is performed during a period between initialization of a starter motor until a predetermined engine operating condition has been fulfilled, wherein the predetermined engine operating condition is that the engine reaches an engine speed of 500 rpm, and the start-up pilot injection strategy is then terminated, allowing the speed at the end of the start-up phase of the internal combustion engine to increase towards a predetermined idling speed. - supplying the combustion air to the combustion chamber in an engine intake stroke; - performing a start-up-pilot injection by injecting a start-up pilot fuel quantity by means of the fuel injector into the combustion air supplied to the combustion chamber during a cold start of the internal combustion engine, said start-up pilot injection forming a homogeneous, lean air/fuel mixture in substantially the entire combustion chamber; and - performing a stratified fuel injection by injecting a second fuel quantity into the combustion chamber during a compression stroke directly before the ignition time, said stratified fuel injection (M, P1; P2; P3) being carried out as a multiple injection, comprising at least one pilot injection and a main injection, each forming a stratified, rich air/fuel mixture in the region of the glow plug and autoigniting the stratified rich air/fuel mixture at a predetermined ignition time during the compression stroke after any one of the stratified fuel injections;
An integrated sensor assembly for detecting electrostatic dust, comprising: an electrostatic sensor comprising: an outer housing, an electrode configured within the outer housing, the electrode comprising a first end and an opposing second end separated by a predetermined length, the first end being secured within the outer housing, the second end comprising a sensing face that is substantially flush with an edge of the outer housing, the electrode comprising a plurality of electrons that respond to one or more charged particles that flow past the sensing face, said electrons moving either towards or away from the second end, and an amplifier configured within the outer housing and electrically coupled to the electrode, wherein a particle level flowing past the sensing face as a function of electron movement is detected via said amplifier; and a circuit board configured within the outer housing and electrically coupled to the electrostatic sensor. an electrostatic sensor comprising: an outer housing, an electrode configured within the outer housing, the electrode comprising a first end and an opposing second end separated by a predetermined length, the first end being secured within the outer housing, the second end comprising a sensing face that is substantially flush with an edge of the outer housing, the electrode comprising a plurality of electrons that respond to one or more charged particles that flow past the sensing face, said electrons moving either towards or away from the second end, and an amplifier configured within the outer housing and electrically coupled to the electrode, wherein a particle level flowing past the sensing face as a function of electron movement is detected via said amplifier; and a circuit board configured within the outer housing and an outer housing, an electrode configured within the outer housing, the electrode comprising a first end and an opposing second end separated by a predetermined length, the first end being secured within the outer housing, the second end comprising a sensing face that is substantially flush with an edge of the outer housing, the electrode comprising a plurality of electrons that respond to one or more charged particles that flow past the sensing face, said electrons moving either towards or away from the second end, and an amplifier configured within the outer housing and electrically coupled to the electrode, wherein a particle level flowing past the sensing face as a function of electron movement is detected via said amplifier; and
An energy-saving method, comprising: receiving, by a baseband subsystem, a downlink subframe that is scheduled by a layer 2; performing, by the baseband subsystem, baseband processing on the downlink subframe; shutting down or decreasing (S205, S304), by the baseband subsystem or by an intermediate-frequency radio-frequency subsystem, power of a transmitting channel corresponding to an Orthogonal Frequency Division Multiplex, OFDM, symbol when judging no actual content is carried on the OFDM symbol in the downlink subframe; wherein the actual content comprises service data, pilot data and channel data. receiving, by a baseband subsystem, a downlink subframe that is scheduled by a layer 2; performing, by the baseband subsystem, baseband processing on the downlink subframe; shutting down or decreasing (S205, S304), by the baseband subsystem or by an intermediate-frequency radio-frequency subsystem, power of a transmitting channel corresponding to an Orthogonal Frequency Division Multiplex, OFDM, symbol when judging no actual content is carried on the OFDM symbol in the downlink subframe; wherein the actual content comprises service data, pilot data and channel data.
An upper for an article of footwear (100, 200, 300), the upper comprising: a braided structure (104, 204, 304) comprising an inner surface (108, 208) proximate an interior cavity of the article of footwear (100, 200, 300), an outer surface (110, 210) proximate an exterior surface of the article of footwear (100, 200, 300), a first yarn having a first cross-sectional shape, and a second yarn having a second cross-sectional shape, different than the first cross-sectional shape, wherein the first cross-sectional shape comprises a rectangular orientation having a first side parallel to a second side, the first side of the first yarn defining the outer surface (110, 210) of the braided structure (104, 204, 304) and the second side of the first yarn defining the inner surface (108, 208) of the braided structure (104, 204, 304), characterized in that the first yarn is a flat yarn having the first cross-sectional shape comprising a width and a thickness, wherein the width is larger than the thickness, and wherein the width of the first cross-sectional shape defines the first side and the second side.
A polymer composition comprising (a) a polyolefin which is an unsaturated LDPE polymer, which is selected from an unsaturated LDPE homopolymer or an unsaturated LDPE copolymer of ethylene with one or more comonomer(s), (b) peroxide, and (c) an ion exchanger additive in an amount of 0.0001 to 0.045 wt% based on the total weight of the polymer composition; wherein the ion exchanger additive (c) is an anion exchanger additive of hydrotalcite type (a) a polyolefin which is an unsaturated LDPE polymer, which is selected from an unsaturated LDPE homopolymer or an unsaturated LDPE copolymer of ethylene with one or more comonomer(s), (b) peroxide, and (c) an ion exchanger additive in an amount of 0.0001 to 0.045 wt% based on the total weight of the polymer composition;
An alarm operation method for use by a mobile terminal, comprising: receiving input data used for setting an alarm; setting alarm content comprising at least one of, audio data and video data, to be played in response to detection of an alarm trigger condition, the alarm content comprising a category of multiple items of content; and selecting an alarm content item for playback from the category in response to the detection of the alarm trigger condition, wherein setting alarm content comprises: receiving a name of the category; determining whether content belonging to the category is present in a storage unit of the mobile terminal; setting, when content belonging to the category is present in the storage unit, one item of content in the category as alarm content to be played in response to the alarm being triggered; and when content belonging to the category is not present in the storage unit: establishing communication with an alarm content server providing content in response to a determination a network is available; and receiving multiple items of content belonging to the category from the alarm content server. receiving input data used for setting an alarm; setting alarm content comprising at least one of, audio data and video data, audio data and video data, to be played in response to detection of an alarm trigger condition, the alarm content comprising a category of multiple items of content; and selecting an alarm content item for playback from the category in response to the detection of the alarm trigger condition, wherein setting alarm content comprises: receiving a name of the category; determining whether content belonging to the category is present in a storage unit of the mobile terminal; setting, when content belonging to the category is present in the storage unit, one item of content in the category as alarm content to be played in response to the alarm being triggered; and when content belonging to the category is not present in the storage unit: establishing communication with an alarm content server providing content in response to a determination a network is available; and receiving multiple items of content belonging to the category from the alarm content server. receiving a name of the category; determining whether content belonging to the category is present in a storage unit of the mobile terminal; setting, when content belonging to the category is present in the storage unit, one item of content in the category as alarm content to be played in response to the alarm being triggered; and when content belonging to the category is not present in the storage unit: establishing communication with an alarm content server providing content in response to a determination a network is available; and receiving multiple items of content belonging to the category from the alarm content server.
Piston pump for pumping a fluid, including at least one cylinder (11; 11') having a piston (16; 16') which is movable inside the cylinder (11; 11') along the longitudinal axis of the cylinder (11; 11') by means of a drive, wherein each cylinder (11; 11') comprises at an end face a mounting flange (14; 15) having at least one cylinder opening (30; 31; 32; 33) and forms on the cylinder-side, between each piston (16; 16') and the mounting flange (14; 15), a chamber (23; 23') having a volume that changes when the associated piston (16; 16') is moved in the cylinder (11; 11'), and the piston pump has an inlet port for supplying and an outlet port for draining the fluid, wherein a rotatable valve plate is arranged on the side of the mounting flange (14; 15) which side faces away from a cylinder (11; 11'), the valve plate bearing on the respective mounting flange (14; 15) and that is attached to the at least one mounting flange (14; 15) of the inlet port and/or outlet port, wherein the mounting flange (14; 15) has at least one passage (34; 35) in the region of an inlet port and an outlet port, respectively, wherein through this passage (34; 35), the fluid can flow between the inlet port and/or the outlet port and the other side of the mounting flange (14; 15), characterized in that the valve plate has on at least one surface a recessed cavity (21; 21') as fluid-transporting means, which is blocked in the direction of the averted surface, by which, upon rotation of the valve plate between two angular positions, in each of the two angular positions at least one cylinder opening (30; 31; 32; 33) can be connected to a passage (34; 35) of an inlet and/or outlet port (12; 13).
A method of repairing a case for a gas turbine engine, the method comprising: removing the case from the gas turbine engine, the case comprising a connection flange having a plurality of bolt holes formed therein, wherein the step of removing the case from the gas turbine engine comprises unfastening the connection flange from an adjacent structure; removing a first portion of the case from a second portion of the case, wherein the first portion comprises the connection flange having the plurality of bolt holes formed therein; metallurgically joining a replacement material to the second portion of the case to form a repaired case, wherein the replacement material has a different coefficient of thermal expansion than a parent material of the second portion; and reinstalling the repaired case in the gas turbine engine, wherein the step of reinstalling the repaired case in the gas turbine engine comprises fastening the connection flange to the adjacent structure; and wherein the adjacent structure comprises a material the same as the replacement material of the case. removing the case from the gas turbine engine, the case comprising a connection flange having a plurality of bolt holes formed therein, wherein the step of removing the case from the gas turbine engine comprises unfastening the connection flange from an adjacent structure; removing a first portion of the case from a second portion of the case, wherein the first portion comprises the connection flange having the plurality of bolt holes formed therein; metallurgically joining a replacement material to the second portion of the case to form a repaired case, wherein the replacement material has a different coefficient of thermal expansion than a parent material of the second portion; and reinstalling the repaired case in the gas turbine engine, wherein the step of reinstalling the repaired case in the gas turbine engine comprises fastening the connection flange to the adjacent structure; and wherein the adjacent structure comprises a material the same as the replacement material of the case.
System for controlling a differential-free compensating unit of an at least intermittently driveable axle of a motor vehicle, wherein the compensating unit comprises - an input member - a first output member that can be coupled with the input member via a first friction coupling to transfer an output torque to a first drive gear, and - a second output member that can be coupled with the input member via a second friction coupling to transfer an output torque to a second drive gear, characterised in that a correcting variable provided by a correcting variable unit is forwarded to an individual control member without interposition for adjusting the input torque of the first coupling to be transferred from the couplings (10R, 10L), whilst the correcting variable of the second coupling, provided by the correcting variable unit, is supplied upon switching on an individual control member. - an input member - a first output member that can be coupled with the input member via a first friction coupling to transfer an output torque to a first drive gear, and - a second output member that can be coupled with the input member via a second friction coupling to transfer an output torque to a second drive gear,
A gas barrier film, which is obtained by laminating at least one gas barrier layer on a resin substrate, wherein a hardness and an elastic modulus recovery ratio of at least one layer that is adjacent to the gas barrier layer satisfy 0.5 GPa ≤ hardness ≤ 5.0 GPa and 50% ≤ elastic modulus recovery ratio ≤ 100% as measured by a nanoindentation method.
Method for targeted influencing of the deformation behaviour of a wall-like structure, characterized in that the wall-like structure is welded to a holding structure, wherein a bead structure is stamped into the wall-like structure before or after the welding to the holding structure, and the wall-like structure is lasered, at least in certain portions, by means of a laser light source before or after the introduction of the bead structure in at least one selectively chosen region, whereby material of the wall-like structure is remelted and solidified, at least in certain portions.
Module for constructing a utility service system to be installed on a ceiling of a building, comprising; multiple fluid ducts for transporting a fluid, two longitudinal supports extending substantially parallel at a distance from each other, at least one transverse support being supported by the longitudinal supports and extending traverse to the longitudinal supports, wherein - the multiple fluid ducts extend substantially parallel to the longitudinal supports, - the multiple fluid ducts are supported by the at least one transverse support, characterised in that - the multiple fluid ducts are embedded in a body of thermally insulating foam, wherein - the at least one transverse support does not form part of the body of foam. - the multiple fluid ducts extend substantially parallel to the longitudinal supports, - the multiple fluid ducts are supported by the at least one transverse support, characterised in that - the multiple fluid ducts are embedded in a body of thermally insulating foam, wherein - the at least one transverse support does not form part of the body of foam.