mhurhangee/ep-ind-claims huggingface dataset:
A processor, comprising: a multi-entry stack usable in at least a stack-based instruction set and coupled to execution logic; an address generation unit coupled to said stack and arranged to manage the stack; a plurality of registers coupled to a pair of parallel address generation units and addressable through a second instruction set that provides register-based and memory-based operations, said parallel address generation units useable to compute memory source and destination addresses; a first program counter usable in the execution of the stack-based instruction set; and a second program counter usable in the execution of a micro-sequence that comprises instructions from both the stack-based and second instruction sets; and wherein the stack has a top and is accessible within the second instruction set by executing instructions which target one of the registers in which a value is stored that is present at the top of the stack, and wherein in response to executing one of said instructions which target said one of the registers, the processor is configurable to update an address stored in another register which points to the top of the stack to reflect a change in the status of the stack and to update the data value at the top of the stack and in the register. a multi-entry stack usable in at least a stack-based instruction set and coupled to execution logic; an address generation unit coupled to said stack and arranged to manage the stack; a plurality of registers coupled to a pair of parallel address generation units and addressable through a second instruction set that provides register-based and memory-based operations, said parallel address generation units useable to compute memory source and destination addresses; a first program counter usable in the execution of the stack-based instruction set; and a second program counter usable in the execution of a micro-sequence that comprises instructions from both the stack-based and second instruction sets; and wherein the stack has a top and is accessible within the second instruction set by executing instructions which target one of the registers in which a value is stored that is present at the top of the stack, and wherein in response to executing one of said instructions which target said one of the registers, the processor is configurable to update an address stored in another register which points to the top of the stack to reflect a change in the status of the stack and to update the data value at the top of the stack and in the register.
A method for recovering a poxvirus from a host cell comprising (a) culturing said host cell under conditions that allow expression of said poxvirus; (b) collecting said host cell in/on a filter unit; (c) disrupting said host cell retained in/on the filter unit; and (d) separating said poxvirus by eluting the poxvirus from said filter unit. (a) culturing said host cell under conditions that allow expression of said poxvirus; (b) collecting said host cell in/on a filter unit; (c) disrupting said host cell retained in/on the filter unit; and (d) separating said poxvirus by eluting the poxvirus from said filter unit.
Alternating current circuit breaker comprising a live line between a live supply connecting terminal (Lin) and a live load connecting terminal (Lout), and a neutral line between a neutral supply connecting terminal (Nin) and a neutral load connecting terminal (Nout) for connecting an alternating current load to a mains supply, comprising a first galvanic separation switch and a bypass switch connected in the live line, and a second galvanic separation switch connected in the neutral line, and a semiconductor switch element connected parallel to the bypass switch, wherein the first and second galvanic separation switch (SW2, SW3), the bypass switch and the semiconductor switch element are controlled using a processing unit, wherein the first and second galvanic separation switches (SW2,SW3) and the bypass switch are bi-stable relay switches, the semiconductor switch element comprises a combination of a rectifier bridge (D1-D4) and an isolated gate bipolar transistor (IGBT), wherein alternating current terminals of the rectifier bridge (D1-D4) are connected in parallel to the bypass switch, and direct current terminals of the rectifier bridge (D1-D4) are connected to an emitter and a collector terminal of the isolated gate bipolar transistor (IGBT), and wherein the processing unit is connected to a current measurement unit arranged in the live line, and is arranged to control the change of state of the bypass switch, first and second galvanic separation switches (SW2, SW3) by use of a pulse signal and to control the conducting state of the isolated gate bipolar transistor (IGBT) in case of detection of a short circuit or an overcurrent condition wherein the current measuring unit is configured to measure one or more parameters from the group of: - a momentary value of the load current (I(t)); - a speed of increase (dI/dt) of the load current; - a RMS value of the load current (<I>) - a time information of the load current (I(t), t1<t<t2). - a momentary value of the load current (I(t)); - a speed of increase (dI/dt) of the load current; - a RMS value of the load current (<I>) - a time information of the load current (I(t), t1<t<t2).
A topical composition comprising an extract from Coriolus versicolor, for use in the prevention and/or treatment by vaginal or cervical administration of a vaginal or cervical disorder which is caused by an infectious agent selected from the group consisting of human papiloma virus, Gardnerella vaginalis, Mobiluncus, Bacteroides, Mycoplasma, Trichomonas vaginalis, Staphylococcus epidermis, Streptococus alpha and S. epidermidis.
A noise and vibration sensor arrangement configured to operate with an active road noise control system, the arrangement comprising: four acceleration sensors (301 - 304) each configured to generate at least one output signal representative of at least one of accelerations, motions and vibrations that act on the respective acceleration sensor (301 - 304); and a vehicle subframe structure having a shape that is axisymmetric with regard to a first axis and that has a maximum extent along a second axis, the first axis and the second axis being perpendicular; wherein the subframe structure is a structural component of the vehicle, wherein the subframe structure is a discrete, separate structure within a larger body-on-frame or unit body of the vehicle, and is configured to carry components of the vehicle, the four acceleration sensors (301 - 304) are attached to the subframe structure at positions that correspond to four corners of a virtual rectangle or virtual trapezoid, the virtual rectangle or virtual trapezoid has two perpendicular centerlines (309, 310), one of the centerlines being in line with the first axis of the subframe structure, and wherein the noise and vibration sensor arrangement is characterized in that the maximum extent of the virtual rectangle or virtual trapezoid along the other centerline is less than fifty percent of a maximum extent of the subframe structure along its second axis. four acceleration sensors (301 - 304) each configured to generate at least one output signal representative of at least one of accelerations, motions and vibrations that act on the respective acceleration sensor (301 - 304); and a vehicle subframe structure having a shape that is axisymmetric with regard to a first axis and that has a maximum extent along a second axis, the first axis and the second axis being perpendicular; wherein the subframe structure is a structural component of the vehicle, wherein the subframe structure is a discrete, separate structure within a larger body-on-frame or unit body of the vehicle, and is configured to carry components of the vehicle, the four acceleration sensors (301 - 304) are attached to the subframe structure at positions that correspond to four corners of a virtual rectangle or virtual trapezoid, the virtual rectangle or virtual trapezoid has two perpendicular centerlines (309, 310), one of the centerlines being in line with the first axis of the subframe structure, and wherein the noise and vibration sensor arrangement is characterized in that the maximum extent of the virtual rectangle or virtual trapezoid along the other centerline is less than fifty percent of a maximum extent of the subframe structure along its second axis.
An apparatus, comprising at least one processor, and at least one memory storing instructions, the at least one memory and the instructions configured to, with the at least one processor, cause the apparatus at least to determine a set (SET-POS-EST) of position estimates for a mobile device, wherein each position estimate of the set (SET-POS-EST) of position estimates is associated with a) a specific one of a plurality of K many receiver devices (RD1, RD2,..., RDk,..., RDK) configured to receive a reference signal from the mobile device or b) a specific one of a plurality of K many transmitter devices (TD1, TD2,..., TDk,..., TDK) configured to transmit reference signals (RS') to the mobile device, and to determine, based at least on the set (SET-POS-EST) of position estimates, a set (SET-RESID-ERR) of residual errors associated with at least some position estimates of the set (SET-POS-EST) of position estimates, wherein the instructions, when executed by the at least one processor, cause the apparatus to determine a residual error e r of a position estimate associated with a) an r-th receiver device (RDr) or b) an r-th transmitter device (TDr) based on e r = 1 K − 1 ∑ k d ^ k − d ^ r − x ^ WA − p k − x ^ WA − p r, k = 1,..., r − 1, r + 1,..., K wherein d̂ k characterizes an estimated distance associated with a) the k-th receiver device (RDk) or b) the k-th transmitter device (TDk), wherein d̂ r characterizes an estimated distance associated with a) a reference receiver device (RDr) or b) a reference transmitter device (TDr), wherein x̂ WA characterizes a weighted average position estimate, wherein p k characterizes a position of a) the k-th receiver device (RDk) or b) the k-th transmitter device (TDk), wherein p r characterizes a position of a) a reference receiver device (RDr) or b) a reference transmitter device (TDr).
An elevator assembly, comprising: a hoistway having a bottom surface; an elevator car configured to move in the hoistway having a frame member; at least one toe guard panel that is moveable between a first position and a second position, in the first position the toe guard panel is situated to provide a vertical surface beneath the elevator car and the toe guard panel has an end spaced a first distance from the elevator car, in the second position the toe guard panel is situated with a second, shorter distance between the end and the elevator car; a moving mechanism comprising a hook located above the lowest portion of the toe guard panel and coupled with the toe guard panel for selectively moving the toe guard panel from the first position into the second position; and an instigator member situated in a selected vertical position above the hoistway bottom surface to interact with the hook to begin movement of the toe guard panel from the first position when the frame member of the elevator car is approximately at the selected vertical position. a hoistway having a bottom surface; an elevator car configured to move in the hoistway having a frame member; at least one toe guard panel that is moveable between a first position and a second position, in the first position the toe guard panel is situated to provide a vertical surface beneath the elevator car and the toe guard panel has an end spaced a first distance from the elevator car, in the second position the toe guard panel is situated with a second, shorter distance between the end and the elevator car; a moving mechanism comprising a hook located above the lowest portion of the toe guard panel and coupled with the toe guard panel for selectively moving the toe guard panel from the first position into the second position; and an instigator member situated in a selected vertical position above the hoistway bottom surface to interact with the hook to begin movement of the toe guard panel from the first position when the frame member of the elevator car is approximately at the selected vertical position.
Shock-resistant EFI ignition device, comprising a printed circuit board with at least one conductive layer, an igniter board with an electrical ignition bridge, a foil, which lies against the ignition bridge and from which a flyer can be punched out, a barrel, which lies against the foil and has an opening corresponding to the size of the flyer, a lead relay (s), which contains an explosive and lies directly against the barrel, and a housing, which at least partially surrounds the ignition device, characterized - in that a freely movable, bending-resistant two-dimensional component lies against the side of the igniter board opposite from the foil and has transverse dimensions that are slightly smaller than the clear width of the housing in this region, - in that at least one elastic pretensionable damping element (DK, DF) lies against the other side of the two-dimensional component, - in that the other side of the damping element (DK, DF) lies against a housing component that is in operative connection with the housing, - in that the housing component is adjustable with respect to the housing to produce the pretensioning of the damping element (DK, DF). - in that a freely movable, bending-resistant two-dimensional component lies against the side of the igniter board opposite from the foil and has transverse dimensions that are slightly smaller than the clear width of the housing in this region, - in that at least one elastic pretensionable damping element (DK, DF) lies against the other side of the two-dimensional component, - in that the other side of the damping element (DK, DF) lies against a housing component that is in operative connection with the housing, - in that the housing component is adjustable with respect to the housing to produce the pretensioning of the damping element (DK, DF).
Computer implemented method for proof-of-work for generating and validating a block of a blockchain using at least one printing device, wherein the printing device is configured for generating at least one digital image depending on a printer control setting, the method comprises the following steps: i) providing an initial digital image comprising a plurality of colored pixels, wherein the initial digital image is taken from an image database and/or is generated by printing and scanning the initial digital image by using an initial printer control setting; ii) providing a task digital image comprising a plurality of colored pixels different from the initial digital image; iii) selecting a mining printer control setting, printing the initial digital image by using the printing device by blending pigments with the selected mining printer control setting and scanning the printed image by using at least one scanning device, thereby generating a mining digital image having a plurality of colored pixels different from the initial digital image; iv) comparing the colored pixels of the mining digital image and the task digital image by using at least one processing device; wherein the method comprises repeating steps ii) to iv) until the colored pixels of the mining digital image and the task digital image are found to be identical, wherein in each case in step iii) a different mining printer control setting is selected, wherein the mining printer control setting for which the mining digital image and the task digital image are found to be identical is used as the proof-of-work for generating and validating the block of the blockchain. i) providing an initial digital image comprising a plurality of colored pixels, wherein the initial digital image is taken from an image database and/or is generated by printing and scanning the initial digital image by using an initial printer control setting; ii) providing a task digital image comprising a plurality of colored pixels different from the initial digital image; iii) selecting a mining printer control setting, printing the initial digital image by using the printing device by blending pigments with the selected mining printer control setting and scanning the printed image by using at least one scanning device, thereby generating a mining digital image having a plurality of colored pixels different from the initial digital image; iv) comparing the colored pixels of the mining digital image and the task digital image by using at least one processing device;
A method of detecting at least one structure-borne sound vibration in a component of an agricultural harvester, characterised in that a transit time difference of a structure-borne sound vibration is ascertained with at least one timer, which is received by at least one first structure-borne sound sensor and at least one second structure-borne sound sensor and an origin of the structure-borne sound vibration is ascertained by way of the transit time difference, wherein in a control and evaluation unit the sound pressures detected by a structure-borne sound sensor (44, 46) of a plurality of structure-borne sound vibrations with the same origin are compared together and differing damping of the structure-borne sound vibration is ascertained by a pulse detector (37, 38, 39) by the comparison of the sound pressures.
A detector assembly for determining a ratio of lactate to pyruvate from dialysis, preferably microdialysis for example cerebral microdialysis, the detector assembly comprising: a first pump of a set of pumps, a dialysis probe, preferably a microdialysis probe, having an inlet and an outlet, a first tube of a set of tubes arranged to fluidically couple the first pump to the inlet of the dialysis probe, an infrared, IR, detector, a second tube of the set of tubes arranged to fluidically couple the outlet of the dialysis probe to the IR detector and a controller; wherein the first pump is arranged to pump a perfusate at a first flow rate of a set of flow rates to the dialysis probe, inserted into a fluid or an organ of a patient, via the first tube and to in turn pump, at least in part, a dialysate at a second flow rate of the set of flow rates from the dialysis probe to the IR detector via the second tube, wherein the perfusate enters the inlet of the dialysis probe and the dialysate exits the outlet of the dialysis probe; wherein the IR detector is arranged to detect respective absorbances due, at least in part, to lactate and pyruvate in the dialysate; and wherein the controller is arranged to determine the ratio of lactate to pyruvate in the dialysate based, at least in part, on the detected respective absorbances. a first pump of a set of pumps, a dialysis probe, preferably a microdialysis probe, having an inlet and an outlet, a first tube of a set of tubes arranged to fluidically couple the first pump to the inlet of the dialysis probe, an infrared, IR, detector, a second tube of the set of tubes arranged to fluidically couple the outlet of the dialysis probe to the IR detector and a controller; wherein the first pump is arranged to pump a perfusate at a first flow rate of a set of flow rates to the dialysis probe, inserted into a fluid or an organ of a patient, via the first tube and to in turn pump, at least in part, a dialysate at a second flow rate of the set of flow rates from the dialysis probe to the IR detector via the second tube, wherein the perfusate enters the inlet of the dialysis probe and the dialysate exits the outlet of the dialysis probe; wherein the IR detector is arranged to detect respective absorbances due, at least in part, to lactate and pyruvate in the dialysate; and wherein the controller is arranged to determine the ratio of lactate to pyruvate in the dialysate based, at least in part, on the detected respective absorbances.
A method of fabricating a security product or product of value including a substrate made of paper and a diffractive security element which is directly connected to the substrate by means of an adhesive layer, the method comprising the steps of: (i) applying a hot-melt adhesive and a latent-reactive adhesive a) onto a region of the substrate which region is provided for the security element and/or b) onto said security element, wherein either a mixture of the hot-melt adhesive and the latent-reactive adhesive is applied or the hot-melt adhesive and the latent-reactive adhesive are applied separately from each other section by section and wherein the application temperature T a1 of the hot-melt adhesive is lower than the application temperature T a2 of the latent-reactive adhesive and a temperature T 1 is selected such that during the application process T a1 ≤ T 1 < T a2; (ii) placing the security element onto the substrate; and (iii) heating thereof to a temperature T 2, where T 2 ≥ T a2. (i) applying a hot-melt adhesive and a latent-reactive adhesive a) onto a region of the substrate which region is provided for the security element and/or b) onto said security element, wherein either a mixture of the hot-melt adhesive and the latent-reactive adhesive is applied or the hot-melt adhesive and the latent-reactive adhesive are applied separately from each other section by section and wherein the application temperature T a1 of the hot-melt adhesive is lower than the application temperature T a2 of the latent-reactive adhesive and a temperature T 1 is selected such that during the application process T a1 ≤ T 1 < T a2; (ii) placing the security element onto the substrate; and (iii) heating thereof to a temperature T 2, where T 2 ≥ T a2.
Combined charging station (100, 100a-100c) for the charging of electric vehicles, with at least one outer body (1, 1a) and at least one slot (10a-10i) for the form-fitting reception of each one charging plug (7a-7c), characterised in that the combined charging station (100a-100c) comprises an inner body, being encased by the outer body in such manner, that in-between an outer body wall (3a-3e) and the inner body is arranged an air interspace, in which an air circulation is carried out from lower ventilation openings to upper ventilation openings and that the at least one slot (10d-10i) is arranged on the inner body and that the outer body is waisted in a central area by means of a waist and that a sliding door (14a-14f) is arranged on the outer body wall (3a-3e) at the height and opposite to the slot (10a-10i).
A method of selecting a transmission time interval length to be used for communications between a user equipment device and a base station in response to a new service request, the transmission time interval being an interval of time for a transmission of a data unit, wherein a minimum transmission time interval length is determined using a timing advance value to ensure a transmission efficiency is above a threshold and the selected transmission time interval length to be used by the user equipment device for communication with the base station is greater than the minimum transmission time interval length.
A CTLA4 mutant molecule comprising an amino acid sequence which begins with methionine at position +1 and ends with aspartic acid at position +124 as shown in Figure 8, or which begins with alanine at position -1 and ends with aspartic acid at position +124 as shown in Figure 8.