mhurhangee/patent-ind-claim-en huggingface dataset:
Method for operating an electric vehicle comprising - an electrical traction drive device (2, 3, 4, M1, M2) for the travelling motion of the vehicle, - a control device for controlling the travelling motion of the vehicle, - a first energy storage device and - a second energy storage device , which can be charged and discharged more quickly than the first energy storage device , the electrical traction drive device (2, 3, 4, M1, M2) being supplied with driving power (P A ) by means of an energy distribution means carrying a DC voltage (U EV ), a first power flow (P 1 ) between the first energy storage device and the energy distribution means being controlled towards a setpoint (P 1_set ) by means of a transformer apparatus , a second power flow (P 2 ) between the second energy storage device and the energy distribution means being adjusted automatically, the DC voltage (U EV ) being detected by the transformer apparatus and the setpoint (P 1_set ) being determined in the transformer apparatus on the basis of the detected DC voltage (U EV ), the setpoint (P 1_set ) being determined according to a function K on the basis of the detected DC voltage (U EV ), characterised in that the energy distribution means is, over time intervals, fed power (P L ) by a rectifier of the electric vehicle, said rectifier being powered from a secondary inductor of the electric vehicle, a capacitor being connected in series or in parallel with said secondary inductor such that the resonant frequency of the resonant circuit thus formed is equal to the frequency of an alternating current impressed in an immovably arranged primary conductor, the energy supply being configured to be inductive over portions of a route and, as a result, the two energy storage devices being recharged or the charging state thereof being held at full charge, the vehicle being supplied with power by the two energy storage devices for journeys remote from the primary conductor, the setpoint (P 1_set ) of the function K being constant below a value U 1 of the DC voltage (U EV ), the setpoint (P 1_set ) of the function K decreasing in magnitude in a value range of the DC voltage (U EV ) from U 1 to U 2 , the setpoint (P 1_set ) of the function K having a constant value (P G ), which is greater than zero, in a value range of the DC voltage (U EV ) from U 2 to U 3 , the setpoint ( P1_set ) of the function K decreasing in a value range of the DC voltage (U EV ) from U 3 to U 4 , there existing a voltage value (U N ) at which the setpoint (P 1_set ) disappears, i.e. is zero, the setpoint (P 1_set ) of the function K being constant above a value U 4 of the DC voltage (U EV ), where U 4 > U 3 > U 2 > U 1 . - an electrical traction drive device (2, 3, 4, M1, M2) for the travelling motion of the vehicle, - a control device for controlling the travelling motion of the vehicle, - a first energy storage device and - a second energy storage device , which can be charged and discharged more quickly than the first energy storage device ,
A method for forming a micron, submicron or nanometer dimension polymeric fiber, the method comprising: providing a stationary deposit of a polymer, being a volume of a liquid material on a stationary platform, the liquid material being a polymer solution or a polymer melt; and making a contact with a surface of the polymer to impart sufficient momentary force thereto in order to: decouple a portion of the polymer from the contact, and fling the portion of the polymer away from the contact and from the deposit of the liquid material, thereby forming a micron, submicron or nanometer dimension polymeric fiber, wherein the force is applied substantially parallel to the surface of the polymer by a rotating structure that penetrates the deposit of the polymer during its rotation. providing a stationary deposit of a polymer, being a volume of a liquid material on a stationary platform, the liquid material being a polymer solution or a polymer melt; and making a contact with a surface of the polymer to impart sufficient momentary force thereto in order to: decouple a portion of the polymer from the contact, and fling the portion of the polymer away from the contact and from the deposit of the liquid material, thereby forming a micron, submicron or nanometer dimension polymeric fiber, wherein the force is applied substantially parallel to the surface of the polymer by a rotating structure that penetrates the deposit of the polymer during its rotation. decouple a portion of the polymer from the contact, and fling the portion of the polymer away from the contact and from the deposit of the liquid material, thereby forming a micron, submicron or nanometer dimension polymeric fiber, wherein the force is applied substantially parallel to the surface of the polymer by a rotating structure that penetrates the deposit of the polymer during its rotation.
A tamper-evident closure for the attachment to a container body, comprising: - a cap portion comprising a top wall and a peripheral wall extending downwardly from the top wall ; the cap portion preferably forming a flip-top closure ; - an attachment portion preferably aligned with the peripheral wall ; - a tamper-proof means arranged and integrally formed between the cap portion and the attachment portion ; and - a hinge portion comprising at least one wall section (11; 11a, 11b) which is integrally formed with the peripheral wall and the attachment portion and connects the cap portion and the attachment portion ; wherein - each wall section (11; 11a, 11b) of the hinge portion is formed between at least two cut outs (12; 12, 13; 12, 14), wherein each cut-out (12; 12, 13; 12, 14) starts from a gap between the peripheral wall and the attachment portion and extends into the wall of the peripheral wall or the attachment portion ; - each wall section (11; 11a, 11b) of the hinge portion does not extend beyond an envelope defined by an outer surface of the peripheral wall and an outer surface of the attachment portion ; and - each wall section (11; 11a; 11b) of the hinge portion in a horizontal plane section follows the outer curvature of the peripheral wall of the cap portion , characterized in that each wall section (11; 11a; 11b) of the hinge portion has a substantially constant wall thickness, and in that the substantially constant wall thickness is essentially the same as the wall thickness of the peripheral wall . - a cap portion comprising a top wall and a peripheral wall extending downwardly from the top wall ; the cap portion preferably forming a flip-top closure ; - an attachment portion preferably aligned with the peripheral wall ; - a tamper-proof means arranged and integrally formed between the cap portion and the attachment portion ; and - a hinge portion comprising at least one wall section (11; 11a, 11b) which is integrally formed with the peripheral wall and the attachment portion and connects the cap portion and the attachment portion ; wherein - each wall section (11; 11a, 11b) of the hinge portion is formed between at least two cut outs (12; 12, 13; 12, 14), wherein each cut-out (12; 12, 13; 12, 14) starts from a gap between the peripheral wall and the attachment portion and extends into the wall of the peripheral wall or the attachment portion ; - each wall section (11; 11a, 11b) of the hinge portion does not extend beyond an envelope defined by an outer surface of the peripheral wall and an outer surface of the attachment portion ; and - each wall section (11; 11a; 11b) of the hinge portion in a horizontal plane section follows the outer curvature of the peripheral wall of the cap portion ,
A coated metal sheet comprising a coating on at least one surface of a metal sheet, the coating containing a main resin, a phenol resin as a curing agent and a tannic acid as an additive, wherein the main resin is a resin that is capable of forming a crosslinked structure with the phenol resin, wherein the phenol resin is contained in an amount in a range of 5 to 40 parts by mass per 100 parts by mass of the main resin, and wherein the tannic acid is contained in an amount in a range of 0.1 to 10 parts by mass per 100 parts by mass of the main resin.
A sealing device comprising a pair of sliding components that slide relative to each other, one of the sliding components being a stationary-side seal ring , the other of the sliding components being a rotating-side seal ring , the seal rings each having a sliding face extending radially for sealing sealed fluid against leakage, the sliding faces (S) of the pair of sliding components being provided with a static pressure groove communicating with a sealing gas supply passage , and pumping grooves capable of controlling a radial flow of sealing gas to a flow from an inner peripheral side of the pair of sliding components to an outer peripheral side of the pair of sliding components by relative sliding of the sliding faces (S), characterized in that the static pressure groove is a circumferential groove formed continuously in the entire circumference and is provided with a continuous land portion (R) on the outer peripheral side thereof, and the pumping grooves are located on the inner peripheral side of the static pressure groove .
A pipetting device for removing sample fluid from a sample vessel that is sealed on the top side with a septum , comprising a pipetting needle as well as an auxiliary cannula for piercing the septum , designed to guide the pipetting needle axially through the auxiliary cannula , wherein the pipetting device comprises a guide arm on the lower end of which is arranged an end plate that is axially displaceable along the guide arm against a resilient resistance, and wherein the pipetting device comprises a centering device that can be inserted into the end plate of the guide arm , characterized in that at least three centering fingers with conical bevels are constructed on the radial outside of the centering device , distributed around the circumference thereof, forming a holding-down device for the sample vessel and being able to engage around the top of the sample vessel from the outside during operation, and that the centering device has circular-segment-shaped indentations between the centering fingers such that the centering fingers can project into free spaces between neighboring sample vessels while the indentations are arranged between the neighboring sample vessels .
A pump assembly comprising: a housing having a pumping chamber formed therein, the housing including first and second metal pressure plate portions that form at least a portion of the pumping chamber wherein at least one of the first and second pressure plate portions has a hard coating formed of a different material than a remainder of the housing metal on a surface thereof where integrated ports are formed in surfaces of the pressure plate portions ; and a rotor received in the pumping chamber for rotation relative to the housing; characterized in that : the first and second pressure plate portions include surface irregularities comprising at least one of ridges and valleys or dimples, the surface irregularities acting as crack location controls allowing purposeful cracking at locations that have no adverse effect on the structure and operation of the first and second metal pressure plate portions , thereby relieving stresses and promoting adhesion of the coating to the underlying metal. a housing having a pumping chamber formed therein, the housing including first and second metal pressure plate portions that form at least a portion of the pumping chamber wherein at least one of the first and second pressure plate portions has a hard coating formed of a different material than a remainder of the housing metal on a surface thereof where integrated ports are formed in surfaces of the pressure plate portions ; and a rotor received in the pumping chamber for rotation relative to the housing; characterized in that : the first and second pressure plate portions include surface irregularities comprising at least one of ridges and valleys or dimples, the surface irregularities acting as crack location controls allowing purposeful cracking at locations that have no adverse effect on the structure and operation of the first and second metal pressure plate portions , thereby relieving stresses and promoting adhesion of the coating to the underlying metal. the first and second pressure plate portions include surface irregularities comprising at least one of ridges and valleys or dimples, the surface irregularities acting as crack location controls allowing purposeful cracking at locations that have no adverse effect on the structure and operation of the first and second metal pressure plate portions , thereby relieving stresses and promoting adhesion of the coating to the underlying metal.
Method for monitoring treatment of systemic lupus erythematosus (SLE) in a patient with a CD40 or CD40L antagonist comprising at least the steps of a) determining the expression of at least 2 biomarkers as defined in Table 2 in a nucleic acid sample obtained from a patient which has been diagnosed with SLE, b) determining the expression for said at least 2 biomarkers in a control nucleic acid sample, and c) deciding on whether said patient responds to treatment with a CD40 or CD40L antagonist by comparing the expression levels determined in steps a) and b). a) determining the expression of at least 2 biomarkers as defined in Table 2 in a nucleic acid sample obtained from a patient which has been diagnosed with SLE, b) determining the expression for said at least 2 biomarkers in a control nucleic acid sample, and c) deciding on whether said patient responds to treatment with a CD40 or CD40L antagonist by comparing the expression levels determined in steps a) and b).
A measurement method for measuring a size of expansion of a surface treatment film occurred in a coated metal material that includes a metal base and the surface treatment film provided on the metal base , the measurement method comprising the steps of: disposing a water-containing material to be in contact with the expansion and an electrode to be in contact with the water-containing material , and electrically connecting between the electrode and the metal base with an external circuit ; applying, with the external circuit , a constant DC voltage between the electrode and the metal base , as a cathode and an anode, respectively, and measuring a current value flowing therebetween; and calculating a size of the expansion, based on the current value measured and a correlation between the current value and the size of the expansion, the correlation being determined on an exploratory basis in advance, wherein the size of the expansion corresponds to a peeling diameter or a peeling area of a peeled portion, which is the exposed surface of the metal base exposed by peeling the expanded portion of the surface treatment film. disposing a water-containing material to be in contact with the expansion and an electrode to be in contact with the water-containing material , and electrically connecting between the electrode and the metal base with an external circuit ; applying, with the external circuit , a constant DC voltage between the electrode and the metal base , as a cathode and an anode, respectively, and measuring a current value flowing therebetween; and calculating a size of the expansion, based on the current value measured and a correlation between the current value and the size of the expansion, the correlation being determined on an exploratory basis in advance, wherein the size of the expansion corresponds to a peeling diameter or a peeling area of a peeled portion, which is the exposed surface of the metal base exposed by peeling the expanded portion of the surface treatment film.
Extraction device for extracting a tuyere part, in particular a tuyere or a tuyere cooler , from a shaft furnace, the device comprising: - a supporting frame with a positioning element configured to position the extraction device against a furnace wall ; - a carriage supported by the supporting frame , said carriage being movable in a direction radial to the furnace wall ; - an extraction rod having a first end attached to the carriage and a second end for connecting to the tuyere part, wherein the first end of the extraction rod comprises a stopper ; and - a percussion system acting on the stopper of the extraction rod in a direction away from the furnace wall in order to inflict a sharp blow; - a pretensioning mechanism on said supporting frame , the pretensioning mechanism being configured to apply a substantially constant load to the carriage , in a direction away from the furnace wall . - a supporting frame with a positioning element configured to position the extraction device against a furnace wall ; - a carriage supported by the supporting frame , said carriage being movable in a direction radial to the furnace wall ; - an extraction rod having a first end attached to the carriage and a second end for connecting to the tuyere part, wherein the first end of the extraction rod comprises a stopper ; and - a percussion system acting on the stopper of the extraction rod in a direction away from the furnace wall in order to inflict a sharp blow; - a pretensioning mechanism on said supporting frame , the pretensioning mechanism being configured to apply a substantially constant load to the carriage , in a direction away from the furnace wall .
An antenna apparatus of an electronic device , wherein the antenna apparatus comprises a ground plane and an exciting element of the electronic device , wherein the exciting element has a first branch (29-2) and two second branches (29-1, 29-3), and the two second branches (29-1, 29-3) are respectively connected to two ends of the first branch (29-2); an end of each second branch (29-1, 29-3) that is away from the first branch (29-2) is connected to the ground plane; the two second branches (29-1, 29-3) are used to set the first branch (29-2) on the ground plane , and a gap is formed between the first branch (29-2) and the ground plane ; the ground plane comprises a first side and a second side that are opposite to each other, and a third side and a fourth side that are opposite to each other, wherein L1 is less than L2, L1 is a distance from the exciting element to the first side of the ground plane , and L2 is a distance from the exciting element to the second side of the ground plane ; wherein p1 is a distance from a first end of the exciting element to the third side, and p2 is a distance from a second end of the exciting element to the fourth side of the ground plane ; and the first end of the exciting element is an end close to the third side, and the second end of the exciting element is an end close to the fourth side; and a feeding port is disposed on the exciting element , a first slot is disposed on the first branch (29-2), and a first capacitor is formed by the first slot between two parts of the first branch (29-2), wherein p1 is equal to p2, wherein the feeding port is disposed on a second branch. the exciting element has a first branch (29-2) and two second branches (29-1, 29-3), and the two second branches (29-1, 29-3) are respectively connected to two ends of the first branch (29-2); an end of each second branch (29-1, 29-3) that is away from the first branch (29-2) is connected to the ground plane; the two second branches (29-1, 29-3) are used to set the first branch (29-2) on the ground plane , and a gap is formed between the first branch (29-2) and the ground plane ; the ground plane comprises a first side and a second side that are opposite to each other, and a third side and a fourth side that are opposite to each other, wherein L1 is less than L2, L1 is a distance from the exciting element to the first side of the ground plane , and L2 is a distance from the exciting element to the second side of the ground plane ; wherein p1 is a distance from a first end of the exciting element to the third side, and p2 is a distance from a second end of the exciting element to the fourth side of the ground plane ; and the first end of the exciting element is an end close to the third side, and the second end of the exciting element is an end close to the fourth side; and a feeding port is disposed on the exciting element , a first slot is disposed on the first branch (29-2), and a first capacitor is formed by the first slot between two parts of the first branch (29-2), wherein p1 is equal to p2, wherein the feeding port is disposed on a second branch.
An image acquisition system comprising: a first light source unit configured to emit narrow band light having a peak intensity in a specific band; a second light source unit configured to emit wide band light having a band wider than the specific band; a generation unit configured to generate multiplexed light by using the narrow band light and the wide band light; an imaging unit configured to image an irradiation target of the multiplexed light; a prediction unit configured to perform a prediction of a temperature of an area irradiated with the multiplexed light in the irradiation target on the basis of an amount of light incident on an imaging element of the imaging unit; and a control unit configured to perform control of outputs of the narrow band light and the wide band light on a basis of the prediction; characterised in that in a case where the temperature is predicted to be higher than a predetermined value, the control unit is configured to decrease the output of the wide band light and increase the output of the narrow band light. a first light source unit configured to emit narrow band light having a peak intensity in a specific band; a second light source unit configured to emit wide band light having a band wider than the specific band; a generation unit configured to generate multiplexed light by using the narrow band light and the wide band light; an imaging unit configured to image an irradiation target of the multiplexed light; a prediction unit configured to perform a prediction of a temperature of an area irradiated with the multiplexed light in the irradiation target on the basis of an amount of light incident on an imaging element of the imaging unit; and a control unit configured to perform control of outputs of the narrow band light and the wide band light on a basis of the prediction; characterised in that in a case where the temperature is predicted to be higher than a predetermined value, the control unit is configured to decrease the output of the wide band light and increase the output of the narrow band light.
A composition comprising hydrophobic droplets wherein the hydrophobic droplets comprise a hydrophobic compound , the hydrophobic droplets are coated by a shell, wherein the shell comprises at least 60 wt% of irreversibly denatured protein and the coated hydrophobic droplets are dispersed in a matrix, wherein the matrix comprises, 40-60 wt% whey protein isolate, 20-40 wt% hydrophobically modified starch, and 10-30 wt% polysaccharides and wherein the composition is in a dry form and comprises less than 20 wt% water, wherein the hydrophobic compound is a bioactive agent selected from the group consisting of vitamins, antibiotics, carotenoids, plant extracts, fruit extracts, vegetable extracts, antioxidants, lipids, steroids, phytochemicals and drugs, wherein the polysaccharide is selected from the group consisting of pectin, alginic acid and salts thereof, xanthan gum, chitosan, dextran, pullulan, chondroitin sulfate, gum arabic, gum karaya, gum tragacanth, and carrageenan.
A system for controlling at least one servomotor from a command/control center, of the type comprising a grid for supplying the servomotor with electrical energy and means for transmitting electrical control signals to the servomotor, from a command/control center, characterized in that said supply grid is formed by a cable comprising at least one power supply wire and the signal transmission means are formed by at least one communication wire integrated into the power cable , the control signals are applied between the power supply wire and the communication wire , and in that the latter is electrically insulated from the power supply wire at both of its ends to make it possible to separate the power control signals.