mhurhangee/ep-ind-claims huggingface dataset:
A microelectronic circuit comprising at least: - a stack of a lower circuit tier, an intermediate circuit tier, and an upper circuit tier, distinct from each other and such that the intermediate circuit tier is disposed between the lower circuit tier and the upper circuit tier, - a matrix of devices configured to output and/or receive as an input analogue electrical signals, made in the upper circuit tier, - an analogue amplification and/or processing circuit made in the lower circuit tier, - a digital processing circuit made in the intermediate circuit tier, - an analogue-to-digital and/or digital-to-analogue conversion circuit formed by microelectronic components made in the lower circuit tier and/or in the intermediate circuit tier, and comprising inputs and outputs electrically coupled to inputs and/or outputs of the analogue amplification and/or processing circuit and to inputs and/or outputs of the digital processing circuit, - electrical interconnections passing through the intermediate circuit tier and electrically coupling inputs and/or outputs of the analogue amplification and/or processing circuit to inputs and/or outputs of the devices. - a stack of a lower circuit tier, an intermediate circuit tier, and an upper circuit tier, distinct from each other and such that the intermediate circuit tier is disposed between the lower circuit tier and the upper circuit tier, - a matrix of devices configured to output and/or receive as an input analogue electrical signals, made in the upper circuit tier, - an analogue amplification and/or processing circuit made in the lower circuit tier, - a digital processing circuit made in the intermediate circuit tier, - an analogue-to-digital and/or digital-to-analogue conversion circuit formed by microelectronic components made in the lower circuit tier and/or in the intermediate circuit tier, and comprising inputs and outputs electrically coupled to inputs and/or outputs of the analogue amplification and/or processing circuit and to inputs and/or outputs of the digital processing circuit, - electrical interconnections passing through the intermediate circuit tier and electrically coupling inputs and/or outputs of the analogue amplification and/or processing circuit to inputs and/or outputs of the devices.
Container module, in particular for forming a container arrangement comprising several container modules, said container module comprising: a space region surrounded by container walls for receiving objects; and a container opening which can be covered and provides access to said space region, said entire container module and/or a portion of said container module being a wedge-type structure, where a first surface area section (2; 4a) of said entire container module and/or of said portion of said container module defines a first wedge plane and a second surface area section (3'; 4b) of said entire container module and/or of said portion of said container module defines a second wedge plane; wherein said container module comprises a container lid by which said container opening can be closed; wherein at least one of said container walls comprises a planar outer surface; and wherein at least one of said container walls comprises a planar inner surface, characterized in that said container lid is a wedge-type structure, which is spatially limited by a first wedge surface and a second wedge surface spaced from said first wedge surface and inclined with respect thereto, by a first lateral surface and a second lateral surface spaced from said first lateral surface, as well as by a first end face and a second end face which is larger than said first end face. a space region surrounded by container walls for receiving objects; and a container opening which can be covered and provides access to said space region, said entire container module and/or a portion of said container module being a wedge-type structure, where a first surface area section (2; 4a) of said entire container module and/or of said portion of said container module defines a first wedge plane and a second surface area section (3'; 4b) of said entire container module and/or of said portion of said container module defines a second wedge plane; wherein said container module comprises a container lid by which said container opening can be closed; wherein at least one of said container walls comprises a planar outer surface; and wherein at least one of said container walls comprises a planar inner surface, characterized in that said container lid is a wedge-type structure, which is spatially limited by a first wedge surface and a second wedge surface spaced from said first wedge surface and inclined with respect thereto, by a first lateral surface and a second lateral surface spaced from said first lateral surface, as well as by a first end face and a second end face which is larger than said first end face.
Cosmetic and/or dermatological preparation based on a water-in-oil emulsion comprising only two W/O emulsifiers, characterized in that the W/O emulsifiers differ in their HLB value by at most 0.5, in that the fraction of W/O emulsifiers is chosen in the range from 1.5 to 3% by weight, preferably 2 to 2.6% by weight, based on the total mass of the preparation, and in that the fraction of polyethylene glycols and/or polyethylene glycol derivatives is less than 1% by weight, in particular 0% by weight, based on the total mass of the preparation, and one or more powder raw materials are present.
A gas turbine engine comprising: high and low pressure turbines (46, 54); a mid turbine frame arranged axially between the high and low pressure turbines (46; 54); a bearing operatively supported by a support structure; an inner case secured to the support structure and including a first conical member; and a bearing support (90; 190) to which the bearing is mounted, the bearing support including a second conical member (94; 194) that is secured to the first conical member at a joint (96; 196)), the first and second conical members (92, 94; 194) arranged radially inward of the joint (96; 196); characterised in that: the mid turbine frame includes a circumferential array of airfoils that provide a cavity therethrough, and the support structure includes a rod extending through the airfoil and fastened to the inner case, high and low pressure turbines (46, 54); a mid turbine frame arranged axially between the high and low pressure turbines (46; 54); a bearing operatively supported by a support structure; an inner case secured to the support structure and including a first conical member; and a bearing support (90; 190) to which the bearing is mounted, the bearing support including a second conical member (94; 194) that is secured to the first conical member at a joint (96; 196)), the first and second conical members (92, 94; 194) arranged radially inward of the joint (96; 196);
Packaging aid for packing articles of clothing, in particular outerwear, into a shipping box, while minimising folds and bending, comprising a main body for holding the article of clothing in the shipping box during the shipping, wherein the main body is designed and configured such that the latter in the shipping position of the article of clothing supports said article of clothing spanning an interior space of the shipping box in a bridge-like manner, characterised in that the main body comprises fold preventing means on at least one lateral side (12, 12'), wherein the fold preventing means at least in transport direction form an at least partial cross-sectional enlargement (16, 16') on at least one lateral side (12, 12') of the main body.
A non-transitory computer-readable medium having computer executable code stored thereon, the code comprising instructions to: receive a blood pressure signal and an oxygen saturation signal; determine a phase difference between the blood pressure signal and the oxygen saturation signal; determine a cerebral oximetry index (COx) value based on the blood pressure signal and the oxygen saturation signal; determine a confidence level related to the COx value based at least in part on a comparison between the COx value and the phase difference between the blood pressure signal and the oxygen saturation signal, comprising determining a low confidence level if the phase difference does not corroborate the COx value; and determine a patient's autoregulation status based at least in part on the phase difference, comprising determining that the autoregulation status is impaired and the confidence level is high if the phase difference is approximately zero or constant over a period of time corresponding to a high or positive COx value, and determining that the autoregulation status is intact and the confidence level is high if the phase difference is approximately +/- π radians or non-constant over a period of time corresponding to a low or negative COx value, and taking remedial action if the confidence level is low. receive a blood pressure signal and an oxygen saturation signal; determine a phase difference between the blood pressure signal and the oxygen saturation signal; determine a cerebral oximetry index (COx) value based on the blood pressure signal and the oxygen saturation signal; determine a confidence level related to the COx value based at least in part on a comparison between the COx value and the phase difference between the blood pressure signal and the oxygen saturation signal, comprising determining a low confidence level if the phase difference does not corroborate the COx value; and determine a patient's autoregulation status based at least in part on the phase difference, comprising determining that the autoregulation status is impaired and the confidence level is high if the phase difference is approximately zero or constant over a period of time corresponding to a high or positive COx value, and determining that the autoregulation status is intact and the confidence level is high if the phase difference is approximately +/- π radians or non-constant over a period of time corresponding to a low or negative COx value, and taking remedial action if the confidence level is low.
A catalytic device for processing a fluid containing hydrocarbons comprising: a catalytic body formed of at least three metallic materials arranged in a layered structure that is rolled into a predetermined shape and is permeable to fluid flow, the layered structure having a compressed region formed along a longitudinal length of the layered structure. a catalytic body formed of at least three metallic materials arranged in a layered structure that is rolled into a predetermined shape and is permeable to fluid flow, the layered structure having a compressed region formed along a longitudinal length of the layered structure.
A message processing method, comprising: receiving a message from external equipment; encapsulating the message with a virtual local area network VLAN label, wherein the VLAN label corresponds to a user equipment that sends or receives the message; and determining a virtual home gateway that corresponds to the VLAN label, so that the virtual home gateway processes the message that is encapsulated with the VLAN label, wherein the virtual home gateway corresponds to the user equipment; the method characterized in that the VLAN label comprises an outer-layer label and an inner-layer label, and the outer-layer label is used to determine a flow direction of the message. receiving a message from external equipment; encapsulating the message with a virtual local area network VLAN label, wherein the VLAN label corresponds to a user equipment that sends or receives the message; and determining a virtual home gateway that corresponds to the VLAN label, so that the virtual home gateway processes the message that is encapsulated with the VLAN label, wherein the virtual home gateway corresponds to the user equipment; the method characterized in that the VLAN label comprises an outer-layer label and an inner-layer label, and the outer-layer label is used to determine a flow direction of the message.
A brachytherapy implant seed comprising: a sealed inorganic metallic cylinder having a radioactive core received therein, the radioactive core comprising: an inorganic amorphous silicate glass tube having an exterior surface extending axially along the tube; and an inorganic crystalline ceramic coating received on at least a portion of the inorganic amorphous glass tube exterior surface, said coating comprising a therapeutic dose of radioactive material; and a radiographic marker received within the sealed inorganic metallic cylinder. a sealed inorganic metallic cylinder having a radioactive core received therein, the radioactive core comprising: an inorganic amorphous silicate glass tube having an exterior surface extending axially along the tube; and an inorganic crystalline ceramic coating received on at least a portion of the inorganic amorphous glass tube exterior surface, said coating comprising a therapeutic dose of radioactive material; and a radiographic marker received within the sealed inorganic metallic cylinder. an inorganic amorphous silicate glass tube having an exterior surface extending axially along the tube; and an inorganic crystalline ceramic coating received on at least a portion of the inorganic amorphous glass tube exterior surface, said coating comprising a therapeutic dose of radioactive material; and a radiographic marker received within the sealed inorganic metallic cylinder.
A negative electrode for a rechargeable battery comprising: a substrate; and an active material layer including a graphite-based negative electrode active material formed on at least one surface of the substrate, wherein the active material layer includes an internal layer relatively adjacent to the substrate and a surface layer relatively away from the substrate and the internal layer and the surface layer have a degree of divergence defined by Equation 1 below, characterized in that the DD value of the surface layer is 6% to 50% of the DD value of the internal layer, and wherein the DD value of the internal layer is 50 to 80 and the DD value of the surface layer is 4 to 26. DD Degree of Divergence = I a / I total × 100 (in Equation 1, I a is a sum value of peak intensities appearing at a non-planar angle when XRD is measured using a CuKa line, wherein the non-planar angle refers to 20=42.4±0.2°, 43.4±0.2°, 44.6±0.2°, 77.5±0.2°, I total is a sum value of peak intensities appearing at every angle when XRD is measured using the CuKa line, wherein every angle refers to 2θ=26.5±0.2°, 42.4±0.2°, 43.4±0.2°, 44.6±0.2°, 54.7±0.2°, 77.5±0.2°). a substrate; and an active material layer including a graphite-based negative electrode active material formed on at least one surface of the substrate, wherein the active material layer includes an internal layer relatively adjacent to the substrate and a surface layer relatively away from the substrate and the internal layer and the surface layer have a degree of divergence defined by Equation 1 below, characterized in that the DD value of the surface layer is 6% to 50% of the DD value of the internal layer, and wherein the DD value of the internal layer is 50 to 80 and the DD value of the surface layer is 4 to 26. DD Degree of Divergence = I a / I total × 100 (in Equation 1, I a is a sum value of peak intensities appearing at a non-planar angle when XRD is measured using a CuKa line, wherein the non-planar angle refers to 20=42.4±0.2°, 43.4±0.2°, 44.6±0.2°, 77.5±0.2°, I total is a sum value of peak intensities appearing at every angle when XRD is measured using the CuKa line, wherein every angle refers to 2θ=26.5±0.2°, 42.4±0.2°, 43.4±0.2°, 44.6±0.2°, 54.7±0.2°, 77.5±0.2°). I a is a sum value of peak intensities appearing at a non-planar angle when XRD is measured using a CuKa line, wherein the non-planar angle refers to 20=42.4±0.2°, 43.4±0.2°, 44.6±0.2°, 77.5±0.2°, I total is a sum value of peak intensities appearing at every angle when XRD is measured using the CuKa line, wherein every angle refers to 2θ=26.5±0.2°, 42.4±0.2°, 43.4±0.2°, 44.6±0.2°, 54.7±0.2°, 77.5±0.2°).
A dynamic adjustment method while driving a vehicle of at least one vehicle operating parameter, the vehicle comprising at least one electronic control unit adapted to set said operating parameter, and at least one communication interface operatively connected to the electronic control unit, the method being adapted to be carried out by an application program installed on board of a portable processing device comprising a communication interface adapted to communicate with the communication interface of the vehicle; the method comprising the steps of: - accessing via the application program to an electronic map of a path and dividing said path in a plurality of sectors; - storing via the application program a plurality of values of the operating parameter, each being associated to a corresponding sector; - identifying in real time while driving of the vehicle and via the application program the sector occupied by the vehicle; - transmitting, sector by sector, from the portable processing device to the electronic control unit said plurality of values so that the electronic control unit sets, sector by sector, said operating parameter of the vehicle to the value associated to the occupied sector; wherein the portable processing device comprises a satellite geo-localization system adapted to acquire position data of the vehicle and wherein the identifying step comprises a step of detecting the position of the vehicle in a geo-referenced system by said geo-localization system and a step of correcting and/or integrating the acquired position data with: - dynamic data of the vehicle detected by sensors, installed on the portable processing device and/or the vehicle, for the estimate of an expected position of the vehicle; - data regarding the electronic map of the path. - accessing via the application program to an electronic map of a path and dividing said path in a plurality of sectors; - storing via the application program a plurality of values of the operating parameter, each being associated to a corresponding sector; - identifying in real time while driving of the vehicle and via the application program the sector occupied by the vehicle; - transmitting, sector by sector, from the portable processing device to the electronic control unit said plurality of values so that the electronic control unit sets, sector by sector, said operating parameter of the vehicle to the value associated to the occupied sector; wherein the portable processing device comprises a satellite geo-localization system adapted to acquire position data of the vehicle and wherein the identifying step comprises a step of detecting the position of the vehicle in a geo-referenced system by said geo-localization system and a step of correcting and/or integrating the acquired position data with: - dynamic data of the vehicle detected by sensors, installed on the portable processing device and/or the vehicle, for the estimate of an expected position of the vehicle; - data regarding the electronic map of the path.
A support structure for fastening at least one add-on part to a load-bearing structure of a swimming pool, which support structure comprises at least one support element having a first support region with a first surface and a second support region with a second surface, wherein the first support region is configured to establish a frictional and/or positive connection with a first support surface of the load-bearing structure, and wherein the second support region is configured for producing a frictional and/or positive connection to a second support surface of the load-bearing structure, characterized in that the support element has at least one guide region with at least one insertion section, and with at least one engagement section wherein the guide region is formed for inserting and receiving at least one guide element of the load-bearing structure, and wherein the engagement section is arranged below the insertion section in the vertical direction, and wherein the engagement section is spaced in the orthogonal direction to the second surface of the second support region by a first distance, and wherein the first surface of the first support region is spaced at a second distance in the orthogonal direction to the second surface of the second support region, and wherein a center of gravity of the support structure is spaced apart by a third distance in the orthogonal direction to the second surface of the second support region, wherein the third distance is larger than the first distance and is larger than the second distance. wherein the first support region is configured to establish a frictional and/or positive connection with a first support surface of the load-bearing structure, and wherein the second support region is configured for producing a frictional and/or positive connection to a second support surface of the load-bearing structure, characterized in that the support element has at least one guide region with at least one insertion section, and with at least one engagement section wherein the guide region is formed for inserting and receiving at least one guide element of the load-bearing structure, and wherein the engagement section is arranged below the insertion section in the vertical direction, and wherein the engagement section is spaced in the orthogonal direction to the second surface of the second support region by a first distance, and wherein the first surface of the first support region is spaced at a second distance in the orthogonal direction to the second surface of the second support region, and wherein a center of gravity of the support structure is spaced apart by a third distance in the orthogonal direction to the second surface of the second support region, wherein the third distance is larger than the first distance and is larger than the second distance.
Vehicle, in particular hybrid vehicle with inductive charging capability, comprising • an electric machine for driving the vehicle, • a battery for powering the electric machine, • an internal combustion engine for generating electrical energy and/or directly driving the vehicle, • a secondary coil, which is arranged on the underside of the internal combustion engine, for inductive charging of the battery, characterized by • a height-adjustable engine mount for the fastening of the internal combustion engine to a chassis of the vehicle, • wherein the engine mount is designed to lower the internal combustion engine together with the secondary coil relative to the chassis for a charging process. • an electric machine for driving the vehicle, • a battery for powering the electric machine, • an internal combustion engine for generating electrical energy and/or directly driving the vehicle, • a secondary coil, which is arranged on the underside of the internal combustion engine, for inductive charging of the battery, characterized by • a height-adjustable engine mount for the fastening of the internal combustion engine to a chassis of the vehicle, • wherein the engine mount is designed to lower the internal combustion engine together with the secondary coil relative to the chassis for a charging process.