mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing a pressure vessel (10; 10a; 10b; 10c; 10d; 10e) for a motor vehicle, comprising the steps: providing a hollow basic body (12; 12c) as a primary stage of the pressure vessel (10; 10a; 10b; 10c; 10d; 10e), wherein the basic body (12; 12c) has an initial internal volume, and wherein the basic body (12; 12c) has a wall (24; 24c), which extends fully around a longitudinal axis of the basic body (12; 12c), wherein the wall (24; 24c) has an opening (30; 30c), which has an opening rim (32; 32c); providing a hollow auxiliary body (14; 14e), which has a closed base wall and a peripheral wall, wherein the peripheral wall is open on a side lying opposite the base wall; joining the auxiliary body (14; 14e) with the basic body (12; 12c) at the opening (30; 30c) in the wall (24; 24c) of the basic body (12; 12c), such that the pressure vessel (10; 10a; 10b; 10c; 10d; 10e) having a desired final internal volume is obtained, characterized in that the auxiliary body is configured as an insertion part, and that the auxiliary body, prior to the joining, is inserted into the opening with the base wall to the fore so far that the desired final internal volume of the pressure vessel is obtained which is smaller than the initial internal volume. providing a hollow basic body (12; 12c) as a primary stage of the pressure vessel (10; 10a; 10b; 10c; 10d; 10e), wherein the basic body (12; 12c) has an initial internal volume, and wherein the basic body (12; 12c) has a wall (24; 24c), which extends fully around a longitudinal axis of the basic body (12; 12c), wherein the wall (24; 24c) has an opening (30; 30c), which has an opening rim (32; 32c); providing a hollow auxiliary body (14; 14e), which has a closed base wall and a peripheral wall, wherein the peripheral wall is open on a side lying opposite the base wall; joining the auxiliary body (14; 14e) with the basic body (12; 12c) at the opening (30; 30c) in the wall (24; 24c) of the basic body (12; 12c), such that the pressure vessel (10; 10a; 10b; 10c; 10d; 10e) having a desired final internal volume is obtained, characterized in that the auxiliary body is configured as an insertion part, and that the auxiliary body, prior to the joining, is inserted into the opening with the base wall to the fore so far that the desired final internal volume of the pressure vessel is obtained which is smaller than the initial internal volume.
A coated article, comprising: a functional coating provided on a major surface of a glass substrate; an overcoat layer provided over the functional coating and/or as the outermost layer of the functional coating, wherein the overcoat layer comprises gadolinium (Gd)-doped zirconium oxide including from 1 to 20 wt% Gd.
A surgical instrument (104; 108) comprising: a direct current motor load; an ultrasonic energy output, and a circuit; characterized in that the circuit is configured to: receive a combined RF and ultrasonic signal from a generator electrically coupled to the surgical instrument (104; 108); generate an ultrasonic filtered signal by filtering ultrasonic frequency content from the combined RF and ultrasonic signal; generate DC voltage by filtering RF frequency content from the combined signal; provide the DC voltage to the DC motor load; and provide the ultrasonic filtered signal to the ultrasonic energy output wherein the circuit comprises a rectifier configured to produce the DC voltage. a direct current motor load; an ultrasonic energy output, and a circuit; characterized in that the circuit is configured to: receive a combined RF and ultrasonic signal from a generator electrically coupled to the surgical instrument (104; 108); generate an ultrasonic filtered signal by filtering ultrasonic frequency content from the combined RF and ultrasonic signal; generate DC voltage by filtering RF frequency content from the combined signal; provide the DC voltage to the DC motor load; and provide the ultrasonic filtered signal to the ultrasonic energy output wherein the circuit comprises a rectifier configured to produce the DC voltage. receive a combined RF and ultrasonic signal from a generator electrically coupled to the surgical instrument (104; 108); generate an ultrasonic filtered signal by filtering ultrasonic frequency content from the combined RF and ultrasonic signal; generate DC voltage by filtering RF frequency content from the combined signal; provide the DC voltage to the DC motor load; and provide the ultrasonic filtered signal to the ultrasonic energy output wherein the circuit comprises a rectifier configured to produce the DC voltage.
An adhesive patch (126, 600, 700, 800) for a medical device, comprising: a first backing layer to be coupled to the medical device, the first backing layer composed of a first material; a first adhesive layer coupled to the first backing layer; a second backing layer coupled to the first adhesive layer, the second backing layer composed of a second material, the second material different than the first material; and a biocompatible second adhesive layer coupled to the second backing layer, the second adhesive layer to be coupled to an anatomy; characterized in that one of the first adhesive layer, the second backing layer and the second adhesive layer comprise a medicament, and the adhesive patch further comprises a control device to release the medicament onto the anatomy. a first backing layer to be coupled to the medical device, the first backing layer composed of a first material; a first adhesive layer coupled to the first backing layer; a second backing layer coupled to the first adhesive layer, the second backing layer composed of a second material, the second material different than the first material; and a biocompatible second adhesive layer coupled to the second backing layer, the second adhesive layer to be coupled to an anatomy; characterized in that one of the first adhesive layer, the second backing layer and the second adhesive layer comprise a medicament, and the adhesive patch further comprises a control device to release the medicament onto the anatomy.
A method of constructing a library comprising a plurality of polynucleotides of interest, comprising: (a) cleaving an isolated poxvirus genome to produce a first viral fragment and a second viral fragment, wherein the first fragment is nonhomologous with the second fragment; (b) providing a population of transfer plasmids each comprising a polynucleotide of interest flanked by a 5' flanking region and a 3' flanking region, wherein the 5' flanking region comprises a region homologous to the 3' end of the first viral fragment and the 3' flanking region comprises a region homologous to the 5' end of the second viral fragment; and wherein the transfer plasmids are capable of homologous recombination with the first and second viral fragments such that a viable poxvirus genome is formed; (c) transfecting the transfer plasmids and the first and second viral fragments into a mammalian host cell permissive for poxvirus infectivity, wherein the host cell is maintained in cell culture medium following transfection; (d) adding an inhibitor of poxvirus assembly; (e) allowing the transfer plasmid and the first and second viral fragments to undergo homologous recombination, thereby producing a library of viable modified poxvirus genomes each comprising a heterologous nucleic acid; and (f) recovering the library. (a) cleaving an isolated poxvirus genome to produce a first viral fragment and a second viral fragment, wherein the first fragment is nonhomologous with the second fragment; (b) providing a population of transfer plasmids each comprising a polynucleotide of interest flanked by a 5' flanking region and a 3' flanking region, wherein the 5' flanking region comprises a region homologous to the 3' end of the first viral fragment and the 3' flanking region comprises a region homologous to the 5' end of the second viral fragment; and wherein the transfer plasmids are capable of homologous recombination with the first and second viral fragments such that a viable poxvirus genome is formed; (c) transfecting the transfer plasmids and the first and second viral fragments into a mammalian host cell permissive for poxvirus infectivity, wherein the host cell is maintained in cell culture medium following transfection; (d) adding an inhibitor of poxvirus assembly; (e) allowing the transfer plasmid and the first and second viral fragments to undergo homologous recombination, thereby producing a library of viable modified poxvirus genomes each comprising a heterologous nucleic acid; and (f) recovering the library.
A method for treating food in a cooking oven of the type comprising: - a cooking chamber adapted to receive the dishes to be treated; - heating means located in a thermal exchange relationship with the inner portion of the cooking chamber; - a ventilation system (12, 13, 14, 15, 16) adapted to mix the air inside the cooking chamber, wherein said ventilation system comprises a rotor operable through an electrical motor, comprising the step of changing the rotor rotation speed (ω), wherein the rotation speed (ω) is alternately increased and decreased in a speed range between a higher value (ω1) and a lower value (ω2), characterized in that the rotor rotation speed (ω) follows an impulse trend, wherein the duration in which the rotor rotates at the higher speed (ω1) is much shorter than the duration in which the rotor rotates at a lower speed (ω2) and the ratio (t1/t2) of the duration at the higher speed (ω1) to the duration at a lower speed (ω2) ranges between 0.05 and 0.45. - a cooking chamber adapted to receive the dishes to be treated; - heating means located in a thermal exchange relationship with the inner portion of the cooking chamber; - a ventilation system (12, 13, 14, 15, 16) adapted to mix the air inside the cooking chamber, wherein said ventilation system comprises a rotor operable through an electrical motor,
A method for determining an atmospheric radiative forcing difference by optimising contrail formation caused by an aircraft, the method comprising: - receiving one or more weather parameters to determine a contrail forecast data; - receiving one or more flight parameters associated with the aircraft to determine a flight data, wherein one or more flight parameters is selected from:: a date and time of a flight, a destination, a trajectory, a flight altitude, an expected arrival at the destination, a speed, a latitude for flying the aircraft, a longitude for flying the aircraft, a heading, a payload, an operating characteristic of a particular aircraft type and a fuel data. - determining a tentative atmospheric radiative forcing quantity, along a tentative flight trajectory, based on the contrail forecast data and the flight data; - altering the one or more flight parameters to determine an optimised flight trajectory having an optimised atmospheric radiative forcing quantity, wherein the optimised atmospheric radiative forcing quantity is lesser than the tentative atmospheric radiative forcing quantity, and wherein the optimised flight trajectory is validated using an imagery data; and - determining the atmospheric radiative forcing difference, based on the tentative atmospheric radiative forcing quantity and the optimised atmospheric radiative forcing quantity, to evaluate an offset value for at least one forcing parameter associated with the atmospheric radiative forcing difference. - receiving one or more weather parameters to determine a contrail forecast data; - receiving one or more flight parameters associated with the aircraft to determine a flight data, wherein one or more flight parameters is selected from:: a date and time of a flight, a destination, a trajectory, a flight altitude, an expected arrival at the destination, a speed, a latitude for flying the aircraft, a longitude for flying the aircraft, a heading, a payload, an operating characteristic of a particular aircraft type and a fuel data. - determining a tentative atmospheric radiative forcing quantity, along a tentative flight trajectory, based on the contrail forecast data and the flight data; - altering the one or more flight parameters to determine an optimised flight trajectory having an optimised atmospheric radiative forcing quantity, wherein the optimised atmospheric radiative forcing quantity is lesser than the tentative atmospheric radiative forcing quantity, and wherein the optimised flight trajectory is validated using an imagery data; and - determining the atmospheric radiative forcing difference, based on the tentative atmospheric radiative forcing quantity and the optimised atmospheric radiative forcing quantity, to evaluate an offset value for at least one forcing parameter associated with the atmospheric radiative forcing difference.
A heat pump, comprising: a plurality of stages (152, 154, 156, 158, 160, 162) arranged sequentially along a predetermined direction, each of the stages (152, 154, 156, 158, 160, 162) comprising magneto caloric material having a Curie temperature range, the stages (152, 154, 156, 158, 160, 162) arranged so that the Curie temperature ranges of the plurality of stages (152, 154, 156, 158, 160, 162) increase along the predetermined direction; an adjustable heat transfer fluid flow path through the heat pump, the fluid flow path configured so that the number of stages (152, 154, 156, 158, 160, 162) through which heat transfer fluid passes is adjustable; and a magnetic device positioned adjacent to the plurality of stages (152, 154, 156, 158, 160, 162), the magnetic device configured to subject one or more of the plurality of stages (152, 154, 156, 158, 160, 162) to a magnetic field. a plurality of stages (152, 154, 156, 158, 160, 162) arranged sequentially along a predetermined direction, each of the stages (152, 154, 156, 158, 160, 162) comprising magneto caloric material having a Curie temperature range, the stages (152, 154, 156, 158, 160, 162) arranged so that the Curie temperature ranges of the plurality of stages (152, 154, 156, 158, 160, 162) increase along the predetermined direction; an adjustable heat transfer fluid flow path through the heat pump, the fluid flow path configured so that the number of stages (152, 154, 156, 158, 160, 162) through which heat transfer fluid passes is adjustable; and a magnetic device positioned adjacent to the plurality of stages (152, 154, 156, 158, 160, 162), the magnetic device configured to subject one or more of the plurality of stages (152, 154, 156, 158, 160, 162) to a magnetic field.
Aluminium alloy for producing semi-finished products or components for motor vehicles, characterized in that the alloying components of the aluminium alloy have the following contents in percent by weight: Fe ≤ 0.80%, Si ≤ 0.50%, 0.90% ≤ Mn ≤ 1.50%, Mg ≤ 0.25%, Cu ≤ 0.20%, Cr ≤ 0.05%, Ti ≤ 0.05%, V ≤ 0.05%, Zr ≤ 0.05%, the remainder being aluminium, unavoidable impurity elements individually <0.05%, in total <0.15%, and the combined content of Mg and Cu satisfies the following relation in percent by weight 0.17 % ≤ Mg + Cu ≤ 0.25 %.
A multilayer polymer film comprising: a) an oriented polymeric substrate having a print side and an adhesive side, wherein a print-side skin layer of the substrate has a surface roughness determined as disclosed in the description, Ra, ≦ 12.0 μm; b) a metal layer in surface contact with the print side of the polymeric substrate; c) a primer composition in surface contact with the metal layer, wherein the primer composition comprises a copolymer comprising from 65 wt % to 95 wt % of polymer units derived from at least one of ethylene, propylene, and butylene; and from 5 wt % to 35 wt % of polymer units derived from at least one of acrylic acid, methacrylic acid, crotonic acid, maleic acid, and itaconic acid; and d) a printable topcoat layer in surface contact with the primer composition. a) an oriented polymeric substrate having a print side and an adhesive side, wherein a print-side skin layer of the substrate has a surface roughness determined as disclosed in the description, Ra, ≦ 12.0 μm; b) a metal layer in surface contact with the print side of the polymeric substrate; c) a primer composition in surface contact with the metal layer, wherein the primer composition comprises a copolymer comprising from 65 wt % to 95 wt % of polymer units derived from at least one of ethylene, propylene, and butylene; and from 5 wt % to 35 wt % of polymer units derived from at least one of acrylic acid, methacrylic acid, crotonic acid, maleic acid, and itaconic acid; and d) a printable topcoat layer in surface contact with the primer composition.
A method performed by a resource manager of a computing device, the method comprising: receiving a request for a resource set that is to be applied from one of multiple pools of resources, each of the multiple pools being associated with a different workload type, wherein the multiple pools at least in part specify a budget of resources of the computing device among the different workload types, respectively; evaluating the request based at least in part upon the budget, wherein the evaluating includes: selecting, from among the multiple pools, a pool that is appropriate for the requested resource set; determining whether sufficient resources are free within the selected pool based upon currently available resources within the selected pool and a resource quota for the requested resource set; and if sufficient resources are not free within the selected pool, determining whether a previous resource set applied from the selected pool has lower priority than the requested resource set and, if so, requesting release of the previous resource set; and sending a reply to the request based on the evaluating. receiving a request for a resource set that is to be applied from one of multiple pools of resources, each of the multiple pools being associated with a different workload type, wherein the multiple pools at least in part specify a budget of resources of the computing device among the different workload types, respectively; evaluating the request based at least in part upon the budget, wherein the evaluating includes: selecting, from among the multiple pools, a pool that is appropriate for the requested resource set; determining whether sufficient resources are free within the selected pool based upon currently available resources within the selected pool and a resource quota for the requested resource set; and if sufficient resources are not free within the selected pool, determining whether a previous resource set applied from the selected pool has lower priority than the requested resource set and, if so, requesting release of the previous resource set; and selecting, from among the multiple pools, a pool that is appropriate for the requested resource set; determining whether sufficient resources are free within the selected pool based upon currently available resources within the selected pool and a resource quota for the requested resource set; and if sufficient resources are not free within the selected pool, determining whether a previous resource set applied from the selected pool has lower priority than the requested resource set and, if so, requesting release of the previous resource set; and sending a reply to the request based on the evaluating.
A method for tracking trackable objects (7, 9) during a medical workflow comprising a plurality of workflow steps, using a medical tracking system comprising a tracking device being a tracking camera or an EM transmitter, a memory unit and a drive unit, wherein each trackable object (7, 9) has at least one marker (8, 10), the method being characterized by the steps of: - acquiring a set of tracking device positions, wherein each tracking device position is associated with at least one workflow step; - identifying a workflow from a list of medical workflows stored on said memory unit; - sequentially and automatically moving the tracking device to the tracking device positions associated with the workflow steps of said identified workflow using the drive unit; and - performing a tracking step only when the tracking device is in a fixed position. - acquiring a set of tracking device positions, wherein each tracking device position is associated with at least one workflow step; - identifying a workflow from a list of medical workflows stored on said memory unit; - sequentially and automatically moving the tracking device to the tracking device positions associated with the workflow steps of said identified workflow using the drive unit; and - performing a tracking step only when the tracking device is in a fixed position.
A method of making a coated foodstuff comprising: coating an edible substrate with a coating comprising at least one layer of a coating mixture comprising a spray cooked, agglomerated waxy corn starch as a first starch; and baking the coated edible substrate at a temperature from 130° C and 190° C for a time between 10 and 60 minutes. coating an edible substrate with a coating comprising at least one layer of a coating mixture comprising a spray cooked, agglomerated waxy corn starch as a first starch; and baking the coated edible substrate at a temperature from 130° C and 190° C for a time between 10 and 60 minutes.
A preparation method for an electrospinning composition by preparation of a mixture comprising a catalyst and an anhydride and merging said mixture with a polymer solution comprising a functionalized polymer or copolymer, said functionalized polymer or copolymer having one or more epoxy ring, such that the epoxy:anhydride molar ratio in the electrospinning composition is within the range between 1:1 and 50:1, preferably within the range between 2:1 and 10:1, more preferably 4:1 and 6:1; and even more preferably within the range between 4.5:1 and 5.5:1.
A communication device, characterized by, comprising: a communication interface configured to transmit a pilot signal via a communication channel to a further communication device and to receive a plurality of data elements representing channel state information from the further communication device, wherein the plurality of data elements are a subset of a set of data elements representing the full channel state information being available at the further communication device; and a processing unit configured to generate the full channel state information on the basis of the plurality of data elements by applying a piecewise linear fitting scheme to the plurality of data elements received from the further communication device. a communication interface configured to transmit a pilot signal via a communication channel to a further communication device and to receive a plurality of data elements representing channel state information from the further communication device, wherein the plurality of data elements are a subset of a set of data elements representing the full channel state information being available at the further communication device; and a processing unit configured to generate the full channel state information on the basis of the plurality of data elements by applying a piecewise linear fitting scheme to the plurality of data elements received from the further communication device.