mhurhangee/ep-ind-claims huggingface dataset:
A coating formulation useful in forming a conductive coating film on a surface of a collector for constructing an electrode plate for an electricity storage device, comprising: a polymeric acid, a vinyl carboxylate copolymer represented by the following formula: wherein R 1 is selected from the group consisting of H, Na, organic groups derived from vinyl carboxylate monomers, and cations capable of forming electrolytes for the electricity storage device, R 2 to R 4 are independently selected from the group consisting of H, Na, C 1 -C 6 alkyl groups, and cations capable of forming electrolytes for the electricity storage device, and a ratio (m/n) of m to n is from 0.0001 to 1, a conductive material, and a polar solvent. a polymeric acid, a vinyl carboxylate copolymer represented by the following formula: wherein R 1 is selected from the group consisting of H, Na, organic groups derived from vinyl carboxylate monomers, and cations capable of forming electrolytes for the electricity storage device, R 2 to R 4 are independently selected from the group consisting of H, Na, C 1 -C 6 alkyl groups, and cations capable of forming electrolytes for the electricity storage device, and a ratio (m/n) of m to n is from 0.0001 to 1, a conductive material, and a polar solvent.
Pneumatic device configured to receive at least one specific solenoid valve (10, 20) out of solenoid valves (10, 20) of different types, said pneumatic device comprising a coupling section (31, 32) to be coupled with a coupling counterpart section of the solenoid valve (10, 20), characterised in that the coupling section (31, 32) is configured in a way that only the one specific type of solenoid valve (10, 20) can be mounted correctly by means of a mutual form-fit design with respect to the particular type of solenoid valve (10, 20).
An integrated circuit structure, comprising: a nanowire channel structure comprising InGaAs; a graded high-k gate dielectric on and completely surrounding the nanowire channel structure, the graded high-k gate dielectric comprising HfAlOx; and a gate electrode on the graded high-k gate dielectric, the gate electrode comprising a metal, wherein the gate electrode completely surrounds the graded high-k gate dielectric; wherein the graded high-k gate dielectric has a greatest concentration of hafnium proximate the gate electrode and distal from the nanowire channel structure, and wherein the graded high-k gate dielectric has a greatest concentration of aluminum proximate the nanowire channel structure and distal from the gate electrode. a nanowire channel structure comprising InGaAs; a graded high-k gate dielectric on and completely surrounding the nanowire channel structure, the graded high-k gate dielectric comprising HfAlOx; and a gate electrode on the graded high-k gate dielectric, the gate electrode comprising a metal, wherein the gate electrode completely surrounds the graded high-k gate dielectric; wherein the graded high-k gate dielectric has a greatest concentration of hafnium proximate the gate electrode and distal from the nanowire channel structure, and wherein the graded high-k gate dielectric has a greatest concentration of aluminum proximate the nanowire channel structure and distal from the gate electrode.
A method, comprising: determining precoding coefficients of a crosstalk precompensator, and optimizing a power spectrum at an output of the crosstalk precompensator, wherein said optimizing comprises maximizing a sum of data rates on a plurality of communication connections under the condition that max (diag. ( P · S · S H · P H)) ≤ p max, wherein P is a precoder matrix comprising the precoding coefficients and wherein S is s diagonal matrix indicative of an adjustment of the power spectral density and wherein p max is a maximum power value. determining precoding coefficients of a crosstalk precompensator, and optimizing a power spectrum at an output of the crosstalk precompensator, wherein said optimizing comprises maximizing a sum of data rates on a plurality of communication connections under the condition that max (diag. ( P · S · S H · P H)) ≤ p max, wherein P is a precoder matrix comprising the precoding coefficients and wherein S is s diagonal matrix indicative of an adjustment of the power spectral density and wherein p max is a maximum power value.
An apparatus comprising: a vehicle that includes a Solid Oxide Fuel Cell, SOFC, and is configured to submerge in water, the vehicle comprising: a hot box surrounding the SOFC wherein the SOFC includes a cathode inlet, a cathode outlet, an anode inlet, and an anode outlet; cooling means; a Stirring engine having a first end thermally coupled to an interior of the hot box and a second end thermally coupled to the cooling means; wherein the cooling means are configured to modify a rate of heat removal from the second end of the Stirling engine based on a temperature control signal; and the apparatus further comprises a thermal management controller that is configured to monitor a temperature of the cathode outlet of the SOFC, and to modify the temperature control signal to maintain the temperature of the cathode outlet of the SOFC within a temperature range. a vehicle that includes a Solid Oxide Fuel Cell, SOFC, and is configured to submerge in water, the vehicle comprising: a hot box surrounding the SOFC wherein the SOFC includes a cathode inlet, a cathode outlet, an anode inlet, and an anode outlet; cooling means; a Stirring engine having a first end thermally coupled to an interior of the hot box and a second end thermally coupled to the cooling means; wherein the cooling means are configured to modify a rate of heat removal from the second end of the Stirling engine based on a temperature control signal; and the apparatus further comprises a thermal management controller that is configured to monitor a temperature of the cathode outlet of the SOFC, and to modify the temperature control signal to maintain the temperature of the cathode outlet of the SOFC within a temperature range. a hot box surrounding the SOFC wherein the SOFC includes a cathode inlet, a cathode outlet, an anode inlet, and an anode outlet; cooling means; a Stirring engine having a first end thermally coupled to an interior of the hot box and a second end thermally coupled to the cooling means; wherein the cooling means are configured to modify a rate of heat removal from the second end of the Stirling engine based on a temperature control signal; and the apparatus further comprises a thermal management controller that is configured to monitor a temperature of the cathode outlet of the SOFC, and to modify the temperature control signal to maintain the temperature of the cathode outlet of the SOFC within a temperature range.
A method of detecting a fungus in a sample comprising: adding a first forward primer mixture comprising forward primers that include SEQ ID NO:6 and SEQ ID NO:7 to a first mixture, wherein the first mixture comprises a nucleic acid isolated from the sample; adding a first reverse primer mixture comprising reverse primers that include SEQ ID NO:8, SEQ ID NO:9, SEQ ID NO:10, SEQ ID NO:11, SEQ ID NO:12, SEQ ID NO:13, SEQ ID NO:14 and SEQ ID NO:15 to the first mixture; and subjecting the first mixture to conditions that allow nucleic acid amplification; and detecting the presence of the fungus on the basis of a result of the nucleic acid amplification. adding a first forward primer mixture comprising forward primers that include SEQ ID NO:6 and SEQ ID NO:7 to a first mixture, wherein the first mixture comprises a nucleic acid isolated from the sample; adding a first reverse primer mixture comprising reverse primers that include SEQ ID NO:8, SEQ ID NO:9, SEQ ID NO:10, SEQ ID NO:11, SEQ ID NO:12, SEQ ID NO:13, SEQ ID NO:14 and SEQ ID NO:15 to the first mixture; and subjecting the first mixture to conditions that allow nucleic acid amplification; and detecting the presence of the fungus on the basis of a result of the nucleic acid amplification.
A method for conserving power consumption in a memory system, the method comprising: assigning each of a plurality of memory clients residing on a system on, SoC, to a high performance use case or a low performance use case; receiving a memory request from one of the plurality of memory clients residing on the system on chip, SoC, for accessing a dynamic random access memory, DRAM, memory system coupled to the SoC via a memory bus, the memory request containing a channel width resizing bit indicating the performance use case of the memory client; determining from the channel width resizing bit in the memory request that the memory request from the memory client corresponds to the low performance use case for using less than a full width of the memory bus; and conserving memory power consumption for the memory request corresponding to the low performance use case by dynamically resizing the memory bus to less than the full width for the memory request. assigning each of a plurality of memory clients residing on a system on, SoC, to a high performance use case or a low performance use case; receiving a memory request from one of the plurality of memory clients residing on the system on chip, SoC, for accessing a dynamic random access memory, DRAM, memory system coupled to the SoC via a memory bus, the memory request containing a channel width resizing bit indicating the performance use case of the memory client; determining from the channel width resizing bit in the memory request that the memory request from the memory client corresponds to the low performance use case for using less than a full width of the memory bus; and conserving memory power consumption for the memory request corresponding to the low performance use case by dynamically resizing the memory bus to less than the full width for the memory request.
A medium support member, comprising: - an overlay for being placed on a top surface of a table, wherein the overlay comprises a top surface, a bottom surface, and a plurality of through-holes for applying a suction force to a medium; and - a spacer array, comprising at least one spacer member (11, 12, 12', 12a, 12b, 12c), which spacer array is provided on the bottom surface of the overlay for positioning the spacer array on the top surface of the table, such that the top surface of the table is spaced apart from the bottom surface of the overlay for forming a gap between the table and the overlay, wherein the table is arranged for being connected to a vacuum source for providing an underpressure in the gap, characterized in that - the overlay further comprises a recess for receiving a medium registration element in the recess, which recess extends from the top surface of the overlay to the bottom surface of the overlay, - the at least one spacer member (12, 12', 12a, 12b, 12c) on the bottom surface of the overlay is positioned between the recess and a through-hole, and - a groove is provided in the top surface of the overlay, which groove extends from the through-hole over the at least one spacer member (12, 12', 12a, 12b, 12c) for applying a suction force to a medium. - an overlay for being placed on a top surface of a table, wherein the overlay comprises a top surface, a bottom surface, and a plurality of through-holes for applying a suction force to a medium; and - a spacer array, comprising at least one spacer member (11, 12, 12', 12a, 12b, 12c), which spacer array is provided on the bottom surface of the overlay for positioning the spacer array on the top surface of the table, such that the top surface of the table is spaced apart from the bottom surface of the overlay for forming a gap between the table and the overlay, wherein the table is arranged for being connected to a vacuum source for providing an underpressure in the gap, - the overlay further comprises a recess for receiving a medium registration element in the recess, which recess extends from the top surface of the overlay to the bottom surface of the overlay, - the at least one spacer member (12, 12', 12a, 12b, 12c) on the bottom surface of the overlay is positioned between the recess and a through-hole, and - a groove is provided in the top surface of the overlay, which groove extends from the through-hole over the at least one spacer member (12, 12', 12a, 12b, 12c) for applying a suction force to a medium.
A method comprising: adhering a first lens to a second lens such as to form a combined lens having a given optical design, the adhering comprising: placing the first lens and the second lens in respective first and second pressure chambers (71, 72), with an adhesive layer disposed between the first lens and the second lens, pressure within each of the first and second pressure chambers (71,72) being independently controllable; bringing a convex surface of the first lens into contact with the adhesive layer, such that a central region of the convex surface of the first lens initially contacts the adhesive layer, and contact between the convex surface of the first lens and the adhesive layer subsequently radiates outwardly from the central region of the convex surface of the first lens, until the convex surface of the first lens becomes covered by the adhesive layer; and bringing a concave surface of the second lens into contact with the adhesive layer, such that a central region of the concave surface of the second lens initially contacts the adhesive layer, and contact between the concave surface of the second lens and the adhesive layer subsequently radiates outwardly from the central region of the concave surface of the second lens, until the concave surface of the second lens becomes covered by the adhesive layer. placing the first lens and the second lens in respective first and second pressure chambers (71, 72), with an adhesive layer disposed between the first lens and the second lens, pressure within each of the first and second pressure chambers (71,72) being independently controllable; bringing a convex surface of the first lens into contact with the adhesive layer, such that a central region of the convex surface of the first lens initially contacts the adhesive layer, and contact between the convex surface of the first lens and the adhesive layer subsequently radiates outwardly from the central region of the convex surface of the first lens, until the convex surface of the first lens becomes covered by the adhesive layer; and bringing a concave surface of the second lens into contact with the adhesive layer, such that a central region of the concave surface of the second lens initially contacts the adhesive layer, and contact between the concave surface of the second lens and the adhesive layer subsequently radiates outwardly from the central region of the concave surface of the second lens, until the concave surface of the second lens becomes covered by the adhesive layer.
A tissue wipe container, comprising a case which stores therein a roll of tissue wipes with perforations and which is provided with a dispensing unit having an opening through which the tissue wipes pass in a vertical direction to be pulled out to an outside upon being separated along the perforations, and a lid attached to the case in such a manner as to open and close the opening of the dispensing unit, wherein the dispensing unit is provided with an engaging part for causing the dispensing unit to be engaged with the case, the engaging part has a constricted portion formed in a side surface of the dispensing unit at a center in the vertical direction along a circumferential direction, an edge of a mount opening of the case being inserted into the constricted portion to cause the engaging part to be engaged with the mount opening, and the lid is in contact with the dispensing unit to provide airtight closure when the lid closes the opening of the dispensing unit, wherein the engaging part has an upper annular portion situated at an upper side of the constricted portion and a lower annular portion situated at an lower side of the constricted portion, characterised in that an upper face of the upper annular portion is such that a center of an annular band of the upper annular portion upwardly bulges to form a curved surface, and wherein a lower face of the lid does not have a flange that projects in tubular form therefrom, and instead has a lid depression that comes in contact with the curves surface of the upper face of the upper annular portion. the dispensing unit is provided with an engaging part for causing the dispensing unit to be engaged with the case, the engaging part has a constricted portion formed in a side surface of the dispensing unit at a center in the vertical direction along a circumferential direction, an edge of a mount opening of the case being inserted into the constricted portion to cause the engaging part to be engaged with the mount opening, and the lid is in contact with the dispensing unit to provide airtight closure when the lid closes the opening of the dispensing unit, wherein the engaging part has an upper annular portion situated at an upper side of the constricted portion and a lower annular portion situated at an lower side of the constricted portion, characterised in that an upper face of the upper annular portion is such that a center of an annular band of the upper annular portion upwardly bulges to form a curved surface, and wherein a lower face of the lid does not have a flange that projects in tubular form therefrom, and instead has a lid depression that comes in contact with the curves surface of the upper face of the upper annular portion.
Seat back of a seat provided with an immobilization device for a tray placed free to pivot on the back face of a seat back, the tray being designed for use by a person sitting on a seat behind the seat on which the tray is fitted, the immobilizing device being elastic to prevent extension of the tray, characterised in that the immobilization device of the tray has a resistance to stretching of which the capacity increases beyond a certain determined elongation of the device.
A clump-forming granular hygiene material, in particular animal litter, preferably cat litter, wherein the granular hygiene material comprises a plurality of individual granules (1; 1a), wherein each granule (1; 1a) comprises: (a) at least one inner carrier grain composed of a porous, mineral, non-swelling carrier material, (b) an intermediate layer enveloping the carrier grain or carrier grains, said layer consisting of a mixture that contains at least a powder of a non-swelling, mineral, porous material, in particular calcium silicate hydrate powder, and a gel matrix composed at least of starch that swells in cold water and in particular is soluble in cold water and a hydrocolloid other than starch that swells in cold water and in particular is soluble in cold water, (c) bentonite powder or superabsorbent polymer disposed between the carrier grain or carrier grains and the intermediate layer, (d) an outer shell layer encapsulating the intermediate layer, having a shell layer surface, wherein the outer shell layer consists of a mixture that contains at least a powder of a non-swelling, mineral, porous material, in particular calcium silicate hydrate powder, and bentonite powder, and (e) a hydrocolloid gel that swells in cold water, and in particular that is soluble in cold water, disposed between the outer shell layer and the intermediate layer, in particular starch gel, (f) hydrocolloid grains of a hydrocolloid that swells in cold water, and in particular that is soluble in cold water, distributed over the shell layer surface. (a) at least one inner carrier grain composed of a porous, mineral, non-swelling carrier material, (b) an intermediate layer enveloping the carrier grain or carrier grains, said layer consisting of a mixture that contains at least a powder of a non-swelling, mineral, porous material, in particular calcium silicate hydrate powder, and a gel matrix composed at least of starch that swells in cold water and in particular is soluble in cold water and a hydrocolloid other than starch that swells in cold water and in particular is soluble in cold water, (c) bentonite powder or superabsorbent polymer disposed between the carrier grain or carrier grains and the intermediate layer, (d) an outer shell layer encapsulating the intermediate layer, having a shell layer surface, wherein the outer shell layer consists of a mixture that contains at least a powder of a non-swelling, mineral, porous material, in particular calcium silicate hydrate powder, and bentonite powder, and (e) a hydrocolloid gel that swells in cold water, and in particular that is soluble in cold water, disposed between the outer shell layer and the intermediate layer, in particular starch gel, (f) hydrocolloid grains of a hydrocolloid that swells in cold water, and in particular that is soluble in cold water, distributed over the shell layer surface.
A separation analysis method for analyzing a sample component included in a sample liquid (Sm) by introducing the sample liquid (Sm) into a separation flow path filled with a flow path liquid, the method comprising: obtaining a correction factor, the method being characterized in that the correction factor T 0 /T X represents a proportion of a time period T 0 from a first point in time when the sample liquid (Sm) is introduced into the separation flow path, to a second point in time when an interface between the flow path liquid and the sample liquid (Sm) reaches a detecting section at the separation flow path, with respect to a time period Tx from the first point in time to a third point in time when an optical characteristic value of the sample component is measured at the detecting section, and correcting the measured optical characteristic value with the correction factor. obtaining a correction factor, the method being characterized in that the correction factor T 0 /T X represents a proportion of a time period T 0 from a first point in time when the sample liquid (Sm) is introduced into the separation flow path, to a second point in time when an interface between the flow path liquid and the sample liquid (Sm) reaches a detecting section at the separation flow path, with respect to a time period Tx from the first point in time to a third point in time when an optical characteristic value of the sample component is measured at the detecting section, and correcting the measured optical characteristic value with the correction factor.
Method for determining control parameters for controlling an electric drive by means of a vector control, wherein the electric drive has at least one electric machine, wherein a current indicator is applied as a signal at three-phase winding connections (U,V,W) of the electric machine, wherein in each case a d-component and a q-component of a stator voltage and of a stator current is measured at the winding connections (U,V,W), wherein in a first measurement step, a rotating current indicator is applied to the three-phase winding connections (U,V,W) and the electric machine is oriented such that an exciter current in the q-axis assumes a minimum, wherein in a second measurement step, when the rotor of the electric machine is stationary, a field winding of the electric machine is short circuited and a current indicator in the form of a binary noise signal is applied to the three-phase winding connections (U,V,W), wherein a stator impedance (Zd) is determined from the measured d-component and the q-component of the stator voltage and of the stator current as a first control parameter, characterised in that the binary noise signal is generated by a pseudo random number sequence with a feedback shift register, wherein the shift register has a shift clock, wherein a predeterminable frequency spectrum is generated by means of the shift clock, wherein different frequency spectra are generated by means of various shift clocks.