mhurhangee/ep-ind-claims huggingface dataset:
Energy storage device, in particular for the starter of an internal combustion engine, comprising: at least one energy storage element, a data generating unit for acquiring operating parameters of said energy storage element of said energy storage device and generating corresponding data, where said operating parameters of said energy storage element include at least the electrical current and/or the electrical voltage of said energy storage element, at least one separating device for reversibly separating an electrically conductive connection between said energy storage element and a power source and/or an electrically conductive connection between said energy storage element and a power receiver, and a data transmitting unit for transmitting data between said data generating unit and a data input/output device and between said data input/output device and said separating device, where said data input/output device is a smartphone, a tablet or an on-board computer of a vehicle with a screen and input elements, where said separating device can be actuated both depending on data which is transmitted directly from said data generating unit to said separating device and depending on data which is transmitted from said data transmitting unit to said separating device, and said data input/output device is configured read the operational parameters generated by said data generating device, wherein said energy storage device has a weight in the range from 0.5 to 5 kg, a capacity in the range from 30 to 1000 Wh and a nominal voltage in the range from 5 to 24 V, wherein said energy storage element is accommodated in a casing, where pressure equalization in said casing is realized by way of a membrane integrated into a casing cover, where said membrane is configured such that it opens or disintegrates at a temperature above 100 °C and thus additionally increases the air throughput.
A gas turbine engine comprising a propulsor, an intermediate pressure compressor, a high pressure compressor, a high pressure turbine, a low pressure turbine and a gearbox, the high pressure turbine being arranged to drive the high pressure compressor via a high pressure shaft, the low pressure turbine being arranged to drive the intermediate pressure compressor via a low pressure shaft and an intermediate pressure compressor drive shaft, the low pressure turbine being arranged to drive the propulsor via the low pressure shaft, a gearbox input drive shaft, the gearbox and a gearbox output drive shaft, characterised in that the intermediate pressure compressor drive shaft having a V-shaped cross-section, the V-shaped cross-section intermediate pressure compressor drive shaft having a base, a first limb extending from the base and a second limb extending from the base, a radially outer end of the first limb of the V-shaped cross-section intermediate pressure compressor drive shaft being removably connected to the intermediate pressure compressor, a radially inner end of the second limb of the V-shaped cross-section intermediate pressure compressor drive shaft being removably connected to the gearbox input drive shaft and the base of the V-shaped cross-section intermediate pressure compressor drive shaft being removably connected to an upstream end of the low pressure shaft.
Piece of wearable costume jewellery or jewellery comprising a mechanism for animating an object, said mechanism comprising: - a drive source arranged to drive a transmission; - a regulating system arranged to regulate the speed of rotation of said transmission; - a support system, distinct from said regulating system, bearing said object intended to be animated by a rotation about a first axis of rotation under the effect of said drive source via a power take-off (9b; 9f) forming part of said transmission, characterized in that said support system comprises a first frame pivotably mounted on a chassis element about said first axis of rotation, and an inner frame pivotably mounted in said first frame about a second pivoting axis which is substantially orthogonal with respect to said first pivoting axis; and in that said object is arranged to be driven by an eccentric driving element secured in rotation to a driving wheel arranged to be driven by said power take-off (9b; 9f). - a drive source arranged to drive a transmission; - a regulating system arranged to regulate the speed of rotation of said transmission; - a support system, distinct from said regulating system, bearing said object intended to be animated by a rotation about a first axis of rotation under the effect of said drive source via a power take-off (9b; 9f) forming part of said transmission,
A membrane gas exchanger having a housing in which a first chamber and a second chamber as well as a membrane are arranged, wherein the membrane is gas permeable and liquid impermeable and separates the first chamber and the second chamber from one another, wherein the first chamber forms the blood side and the second chamber forms the gas side of the membrane gas exchanger, and wherein the first chamber has a blood inlet (Eb) and a blood outlet (Ab), and wherein the second chamber has a gas inlet (Ed) and a gas outlet (Ad), and wherein the blood inlet (Eb), the blood outlet (Ab), the gas inlet (Ed), and the gas outlet (Ad)are arranged at the housing, characterized in that a first adapter is provided that has an inlet and at least two outlets, with the inlet being connected to the gas outlet (Ad) of the housing.
A device for packaging sterile bulk material, particularly a dermocosmetic or galenic preparation, into a container, comprising: a. a sterile enclosure, and in that sterile enclosure, b. a hopper containing the bulk product and comprising in an axial direction a cylindrical reservoir part and a pouring part connected to the cylindrical part; c. a transfer device suitable for transporting the container under the hopper in order to fill the container in a zone known as the filling zone; d. a device for blowing ultra-filtered air from the ceiling to the floor of the enclosure, suitable for producing a flow of air known as a protective flow, around the filling zone; e. characterized in that the axis of the pouring part with an asymmetrical conical shape is not in line with the axis of the reservoir part so that the pouring opening is shifted towards the outer wall of the reservoir. a. a sterile enclosure, and in that sterile enclosure, b. a hopper containing the bulk product and comprising in an axial direction a cylindrical reservoir part and a pouring part connected to the cylindrical part; c. a transfer device suitable for transporting the container under the hopper in order to fill the container in a zone known as the filling zone; d. a device for blowing ultra-filtered air from the ceiling to the floor of the enclosure, suitable for producing a flow of air known as a protective flow, around the filling zone; e. characterized in that the axis of the pouring part with an asymmetrical conical shape is not in line with the axis of the reservoir part so that the pouring opening is shifted towards the outer wall of the reservoir.
A non-alkali glass having a strain point of from 710°C to lower than 725°C, a glass transition point of 770°C or higher, an average thermal expansion coefficient at from 50 to 300°C of from 30×10 -7 to 43×10 -7 /°C, a temperature T 2 at which glass viscosity reaches 10 2 dPa·s of 1710°C or lower, a temperature T 4 at which the glass viscosity reaches 10 4 dPa·s of 1320°C or lower, and comprising, indicated by mol% on the basis of oxides: SiO 2 66 to 70, Al 2 O 3 12 to 14, B 2 O 3 exceeding 0 to 1.5, MgO exceeding 9.5 to 12, CaO 5 to 9, SrO 0.5 to 4.5, BaO 0 to 0.5 and ZrO 2 0 to 2, wherein MgO+CaO+SrO+BaO is from 17 to 21, MgO/(MgO+CaO+SrO+BaO) is 0.4 or more, MgO/(MgO+CaO) is 0.4 or more, and MgO/(MgO+SrO) is 0.6 or more.
A method of sealing a fracture or thief zone in a formation of a hydrocarbon reservoir surrounding a wellbore section of a wellbore having an upstream direction and a downstream direction, the wellbore section being provided with a non-cemented perforated liner, thereby forming an at least substantially annular space between the non-cemented perforated liner and the formation, characterised by that a placement tool including an elongated body is introduced into the non-cemented perforated liner so that a first and a second annular flow barrier (8, 9) arranged on the elongated body extend to the liner and create inside the liner an upstream section, an intermediate section between the first and second annular flow barriers (8, 9), and a downstream section, by that the placement tool includes a cross flow shunt tube allowing wellbore fluids to pass along the wellbore section between the upstream section and the downstream section, by that a sealing fluid outlet of the placement tool is arranged in the intermediate section, by that the placement tool is so positioned in the longitudinal direction of the wellbore section that the intermediate section is located at the fracture or thief zone in the formation, by that a placement fluid, such as sea water, is caused to flow into the fracture or thief zone in the formation by injection of placement fluid into the non-cemented perforated liner in the downstream direction so that placement fluid flows out through perforations of the non-cemented perforated liner and/or by production from an adjacent wellbore in the formation, by that the placement fluid injection and/or the production in the adjacent wellbore is controlled to obtain a desired fluid flow in the at least substantially annular space between the non-cemented perforated liner and the formation that is directed in downstream direction at a position upstream the fracture or thief zone and that is directed in the upstream direction at a position downstream the fracture or thief zone, and by that, when said desired fluid flow is obtained, sealing fluid is ejected from the sealing fluid outlet into the formation.
A reinforced separator for alkaline water hydrolysis comprising a porous support, a first porous polymer layer contiguous with one side of the support and a second porous polymer layer contiguous with the other side of the support, characterized in that: - the maximum pore diameter at the outer surface of the first porous polymer layer (PD max) and of the second porous polymer layer (PD max) are different from each other, - a ratio PDmax /PDmax is between1.25 and 10, - PDmax is between 0.05 μm and 0.3 μm and PDmax is between 0.2 μm and 6.5 μm, wherein the maximum pore diameter is measured according to the ASTM F316 test method. - the maximum pore diameter at the outer surface of the first porous polymer layer (PD max) and of the second porous polymer layer (PD max) are different from each other, - a ratio PDmax /PDmax is between1.25 and 10, - PDmax is between 0.05 μm and 0.3 μm and PDmax is between 0.2 μm and 6.5 μm,
Process for the preparation of imidazo[1,2-a]pyridine compounds of the formula wherein R 1 is C 1-4 -alkoxy or NR 4 R 5 wherein R 4 and R 5 are independently hydrogen or C 1-4 -alkyl or R 4 and R 5, together with the nitrogen atom to which they are attached, form a saturated 4- to 6-membered heterocyclic ring which may contain one further heteroatom selected from nitrogen or oxygen; R 2 is C 1-4 -alkyl, C 1-4 -alkoxycarbonyl, halogen, phenyl which is optionally substituted with C 1-4 -alkyl, C 1-4 -alkoxy or halogen or is NR 4 R 5 wherein R 4 and R 5 are independently hydrogen or C 1-4 -alkyl or R 4 and R 5, together with the nitrogen atom to which they are attached, form a saturated 4- to 6-membered heterocyclic ring which may contain one further heteroatom selected from nitrogen or oxygen; R 3 is C 1-4 -alkyl and X is nitrogen or CH; comprising the reaction of a pyrazole carboxamide derivative of formula wherein R 1 and R 3 are as above; with a halogen imidazo[1,2-a]pyridine derivative of the formula wherein R 2 and X are as above and Y stands for halogen, C 1-4 -alkylsulfonyloxy, mono-or polyhalogen-C 1-4 -alkylsulfonyloxy, mono- or poly-C 1-4 -alkylphenylsulfonyloxy or phenylsulfonyloxy; in the presence of a palladium catalyst, a base and an organic solvent. R 1 is C 1-4 -alkoxy or NR 4 R 5 wherein R 4 and R 5 are independently hydrogen or C 1-4 -alkyl or R 4 and R 5, together with the nitrogen atom to which they are attached, form a saturated 4- to 6-membered heterocyclic ring which may contain one further heteroatom selected from nitrogen or oxygen; R 4 and R 5 are independently hydrogen or C 1-4 -alkyl or R 4 and R 5, together with the nitrogen atom to which they are attached, form a saturated 4- to 6-membered heterocyclic ring which may contain one further heteroatom selected from nitrogen or oxygen; R 2 is C 1-4 -alkyl, C 1-4 -alkoxycarbonyl, halogen, phenyl which is optionally substituted with C 1-4 -alkyl, C 1-4 -alkoxy or halogen or is NR 4 R 5 wherein R 4 and R 5 are independently hydrogen or C 1-4 -alkyl or R 4 and R 5, together with the nitrogen atom to which they are attached, form a saturated 4- to 6-membered heterocyclic ring which may contain one further heteroatom selected from nitrogen or oxygen; R 4 and R 5, together with the nitrogen atom to which they are attached, form a saturated 4- to 6-membered heterocyclic ring which may contain one further heteroatom selected from nitrogen or oxygen; R 3 is C 1-4 -alkyl and X is nitrogen or CH;
A repair method for a regenerative ink cartridge, suitable for a repair chip storing repair data, wherein the enable pads of the repair chip are electrically connected with the enable pads of the original chip to monitor signals on the enable line (LOAD) of the printer; the data pads of the repair chip are electrically connected with the data pads of the original chip to transmit data to the printer through the data line of the printer; the address pads of the repair chip are electrically connected with any m-1 address pads of the m address pads of the original chip to monitor signals on m-1 address lines of the m address lines (ADD1-ADDm) of the printer; according to signals on the said m-1 address lines of the m address lines (ADD1-ADDm) of the printer and signals on the enable line (LOAD) of the printer, the repair chip judges whether a command sent by the printer is a valid data reading command or not, and returns the repair data to the printer through the data line (DATA) of the printer when the command sent by the printer is a valid data reading command; wherein, the repair data are data indicating that the residual ink quantity of an ink cartridge is not 0; and m equals the number of the address lines (ADD1-ADDm) of the printer. the enable pads of the repair chip are electrically connected with the enable pads of the original chip to monitor signals on the enable line (LOAD) of the printer; the data pads of the repair chip are electrically connected with the data pads of the original chip to transmit data to the printer through the data line of the printer; the address pads of the repair chip are electrically connected with any m-1 address pads of the m address pads of the original chip to monitor signals on m-1 address lines of the m address lines (ADD1-ADDm) of the printer; according to signals on the said m-1 address lines of the m address lines (ADD1-ADDm) of the printer and signals on the enable line (LOAD) of the printer, the repair chip judges whether a command sent by the printer is a valid data reading command or not, and returns the repair data to the printer through the data line (DATA) of the printer when the command sent by the printer is a valid data reading command; wherein, the repair data are data indicating that the residual ink quantity of an ink cartridge is not 0; and m equals the number of the address lines (ADD1-ADDm) of the printer.
An arc welding control method comprising: using shield gas containing 60 volume percent or more of inert gas, alternately switching feeding of a welding wire between forward feeding and backward feeding, and repeating a short-circuiting period and an arc period; the method being characterised by the following: switching a first arc period, a second arc period, and a third arc period over time during the arc period, with a first arc current being fed for the first arc period, a second arc current being fed for the second arc period, a third arc current being fed for the third arc period in a manner such that a relationship Ia1 > Ia2 > Ia3 holds, wherein the first arc current is set to a critical current value or more where a droplet transfer status is a spray transfer status, the first arc period is set to a short time length that a droplet transfer does not occur during the first arc period, and as a result a droplet transfer occurs in synchronization with the short-circuiting period; and the second arc current is set to be less than the critical current value. using shield gas containing 60 volume percent or more of inert gas, alternately switching feeding of a welding wire between forward feeding and backward feeding, and repeating a short-circuiting period and an arc period; the method being characterised by the following: switching a first arc period, a second arc period, and a third arc period over time during the arc period, with a first arc current being fed for the first arc period, a second arc current being fed for the second arc period, a third arc current being fed for the third arc period in a manner such that a relationship Ia1 > Ia2 > Ia3 holds, wherein the first arc current is set to a critical current value or more where a droplet transfer status is a spray transfer status, the first arc period is set to a short time length that a droplet transfer does not occur during the first arc period, and as a result a droplet transfer occurs in synchronization with the short-circuiting period; and the second arc current is set to be less than the critical current value. switching a first arc period, a second arc period, and a third arc period over time during the arc period, with a first arc current being fed for the first arc period, a second arc current being fed for the second arc period, a third arc current being fed for the third arc period in a manner such that a relationship Ia1 > Ia2 > Ia3 holds, wherein the first arc current is set to a critical current value or more where a droplet transfer status is a spray transfer status, the first arc period is set to a short time length that a droplet transfer does not occur during the first arc period, and as a result a droplet transfer occurs in synchronization with the short-circuiting period; and the second arc current is set to be less than the critical current value.
Dental micro-applicator having a body having a distal (2.1) and a proximal region (2.2) and having an application area (2.3) in the proximal region, the body having at least one branching or a plurality of filaments in the proximal region (2.2), by means of which a ramification representing the application area (2.3) is being formed at the body in the proximal region (2.2), and at least one hollow closed capsule being assigned to the application area (2.3), characterised in that a plurality of capsules is present in the application area (2.3) being arranged at the filaments and/or in the proximal region (2.2) of the body having branchings.
A method for the early detection of breast cancer comprising: (a) detecting and quantifying the presence of markers 8-OHDG, NSE, NGAL, CA 15.3 and EGFR in blood or urine; (b) establishing the probability of breast cancer affectation according to a logistic regression of the values detected and quantified in blood or urine of a combination of the markers 8-OHDG, EGFR, NSE, CA 15.3 and NGAL; and wherein the calculus of the probability of breast cancer affectation comprises: (i) the calculation of the ratio of the values detected and quantified of the marker 8-OHDG with respect to the values detected and quantified in of the marker EGFR; (ii) the product of the ratio (8-OHDG/EGFR) in step (i) by the value detected and quantified of the marker NGAL; and (iii) the calculation of the product of the values detected and quantified of the markers NGAL and CA 15.3; and wherein the logistic regression of the values detected and quantified in blood or urine of a combination of the markers 8-OHDG, EGFR, NSE, CA 15.3 and NGAL is calculated according with the following formula: Logit = − 5.634 + 5.125 ∗ RATIO 8 − OHDG EGFR − 0.282 ∗ NSE − 0.471 ∗ RATIO 8 − OHDG EGFR ∗ NGAL + 0.4 ∗ NGAL ∗ CA 153 P = e Logit 1 + e Logit ∗ 100
A device for the treatment of hyperhidrosis or for sweat reduction treatment by application of electric current to a treatment area of the skin, which comprises: a) a garment comprising a first electrode adapted for contacting said treatment area; b) a second electrode adapted for contacting the treatment area or skin proximal to the treatment area; and characterised by c) a power delivery unit in electrical communication with said first and second electrodes, wherein said power deliver unit provides a customized dose of electricity to said treatment area, wherein said power delivery unit delivers a continuously increasing amount of electricity followed by a first period of constant electricity, followed by a continuously decreasing amount of electricity, followed by a second period of constant electricity. a) a garment comprising a first electrode adapted for contacting said treatment area; b) a second electrode adapted for contacting the treatment area or skin proximal to the treatment area; and characterised by c) a power delivery unit in electrical communication with said first and second electrodes, wherein said power deliver unit provides a customized dose of electricity to said treatment area, wherein said power delivery unit delivers a continuously increasing amount of electricity followed by a first period of constant electricity, followed by a continuously decreasing amount of electricity, followed by a second period of constant electricity.
A method of monitoring plasma discharges during a surface treatment process, wherein electrodes within a gaseous medium are supplied with an alternating voltage (U HV) for generating a plasma, wherein the generating of the plasma is achieved by dielectric barrier discharge, comprising the following steps: detecting a measuring signal (step 110); separating signal components of the measuring signal, the signal components being above a preset frequency (step 120); evaluating the separated signal components of the measuring signal by comparing them with at least one preset reference (step 130), characterized in that the measuring signal represents a measurement value of the electric energy being produced by said alternating voltage (U HV) in said medium. detecting a measuring signal (step 110); separating signal components of the measuring signal, the signal components being above a preset frequency (step 120); evaluating the separated signal components of the measuring signal by comparing them with at least one preset reference (step 130),
An engineered natural killer T-cell comprising an expression construct that encodes a chimeric antigen receptor with a suitable intracellular signalling domain.
A composition for use in enhancing cognitive function in an animal wherein cognitive decline is caused by damage from disease or changes in brain function, comprising one or more unsaturated fatty acids and one or more nitric oxide releasing compounds (NORC), wherein the composition further comprises one or more B vitamins in an amount effective for enhancing cognitive function and one or more antioxidants in an amount effective for enhancing cognitive function, wherein the composition comprises from 0.1% to 50% UFA, from 0.1% to 20% NORC, from 0.1 to 40 times the recommended daily requirement of B vitamins and from 0.001% to 25% of antioxidants; wherein the antioxidants comprise astaxanthin alone or in combination with other antioxidants.