mhurhangee/patent-ind-claim-en huggingface dataset:
A railroad crossing control system comprising: a constant warning time device with a control unit configured to produce multiple signals, and a pair of termination shunts (S1, S2) positioned on each side of a road crossing a railroad track and configured to provide the speed values of a railroad vehicle travelling on the railroad track to the constant warning time device ; a wheel sensing system comprising at least one sensor connected to a rail of the railroad track at a predetermined position (P), wherein the termination shunts (S1, S2) and the at least one sensor are installed in parallel; wherein the wheel sensing system detects a presence of the railroad vehicle travelling on the railroad track such that the at least one sensor detects wheels of the railroad vehicle using electromagnetic fields, wherein the wheel sensing system also provides speed values of the railroad vehicle to the constant warning time device , and wherein the constant warning time device produces a constant warning time signal for controlling a railroad crossing warning device in response to receiving the speed values of the wheel sensing system or the pair of termination shunts (S1, S2). a constant warning time device with a control unit configured to produce multiple signals, and a pair of termination shunts (S1, S2) positioned on each side of a road crossing a railroad track and configured to provide the speed values of a railroad vehicle travelling on the railroad track to the constant warning time device ; a wheel sensing system comprising at least one sensor connected to a rail of the railroad track at a predetermined position (P), wherein the termination shunts (S1, S2) and the at least one sensor are installed in parallel; wherein the wheel sensing system detects a presence of the railroad vehicle travelling on the railroad track such that the at least one sensor detects wheels of the railroad vehicle using electromagnetic fields, wherein the wheel sensing system also provides speed values of the railroad vehicle to the constant warning time device , and wherein the constant warning time device produces a constant warning time signal for controlling a railroad crossing warning device in response to receiving the speed values of the wheel sensing system or the pair of termination shunts (S1, S2).
A control system for a centrifuge, comprising: a controller that receives a first pressure signal indicative of a first pressure of a product flowing into or out of the centrifuge, and a second pressure signal indicative of a second pressure of an operating fluid flowing into or out of the centrifuge, the controller being configured to: determine a first pressure difference between the first pressure and the second pressure; and in response to the first pressure difference dropping below a first predetermined offset, output a first control signal that causes a backpressure of the product flowing out of the centrifuge to increase. determine a first pressure difference between the first pressure and the second pressure; and in response to the first pressure difference dropping below a first predetermined offset, output a first control signal that causes a backpressure of the product flowing out of the centrifuge to increase.
A rotary selector switch , comprising: a code disc having a plurality of recesses relative to a circumference of the code disc , the code disc being rotatable together with a knob and a shaft ; a cam having a circumference wherein at least a portion of the cam circumference is recessed to at least one depth; the cam having a cam profile along a thickness of the cam about the circumference of the cam ; the cam being rotatable by a motor ; and a plunger having a first portion in contact with the cam profile and a second portion insertable into the recesses in the code disc ; such that upon rotational movement of the knob , protrusions in the code disc relative to the recesses in the code disc are engageable with the second portion of the plunger , thereby preventing rotational movement of the knob in a direction blocked by the protrusion, characterized in that the cam has a surface interfacing with a surface of the code disc ; and the plunger is biased toward the cam profile . a code disc having a plurality of recesses relative to a circumference of the code disc , the code disc being rotatable together with a knob and a shaft ; a cam having a circumference wherein at least a portion of the cam circumference is recessed to at least one depth; the cam having a cam profile along a thickness of the cam about the circumference of the cam ; the cam being rotatable by a motor ; and a plunger having a first portion in contact with the cam profile and a second portion insertable into the recesses in the code disc ; such that upon rotational movement of the knob , protrusions in the code disc relative to the recesses in the code disc are engageable with the second portion of the plunger , thereby preventing rotational movement of the knob in a direction blocked by the protrusion, characterized in that the cam has a surface interfacing with a surface of the code disc ; and the plunger is biased toward the cam profile .
A wireless base station comprising: determining means (121, S402, S502) for determining to perform a handover from the wireless base station to a target wireless base station based on a measurement result received from a user terminal ; specifying means (121, S404, S504) for, after the determining means determines to perform the handover, specifying a type of the handover based on a type of an interface used by the wireless base station to request the handover; notifying means (121, S405, S505) for notifying the user terminal of information related to the specified type of the handover; and transmitting means (121, S409, S515) for transmitting a handover instruction to the user terminal after the notifying means notifies the user terminal of the information related to the specified type of the handover. determining means (121, S402, S502) for determining to perform a handover from the wireless base station to a target wireless base station based on a measurement result received from a user terminal ; specifying means (121, S404, S504) for, after the determining means determines to perform the handover, specifying a type of the handover based on a type of an interface used by the wireless base station to request the handover; notifying means (121, S405, S505) for notifying the user terminal of information related to the specified type of the handover; and transmitting means (121, S409, S515) for transmitting a handover instruction to the user terminal after the notifying means notifies the user terminal of the information related to the specified type of the handover.
A temperature adjustment method for a vehicle-mounted battery, comprising the following steps: obtaining a required power for performing temperature adjustment on a battery (S1); obtaining an actual power for performing temperature adjustment on the battery (S2); and adjusting a temperature of the battery within a target time according to the required power and the actual power, to reach a target temperature (S3). obtaining a required power for performing temperature adjustment on a battery (S1); obtaining an actual power for performing temperature adjustment on the battery (S2); and adjusting a temperature of the battery within a target time according to the required power and the actual power, to reach a target temperature (S3).
A heat-activatable foamable honeycomb core splice adhesive comprising a) a curable polymer; b) a curing agent for the curable polymer; c) a blowing agent; and d) a fire retardant comprising a combination of (i) an ammonium polyphosphate and (ii) a metal hydroxide; wherein the total content of ammonium polyphosphate, relative to the total weight of the core splice adhesive, is not more than 27 wt.-%. a) a curable polymer; b) a curing agent for the curable polymer; c) a blowing agent; and d) a fire retardant comprising a combination of (i) an ammonium polyphosphate and (ii) a metal hydroxide; (i) an ammonium polyphosphate and (ii) a metal hydroxide;
A transdermal solution composition comprising fentanyl, octyl salicylate, and a volatile liquid, in a therapeutically effective amount, for use in controlling pain in an equine in need thereof for an effective period of time by transdermal administration, wherein the fentanyl is administered at a dose of 0.01 to 0.1 mg/kg of weight of the equine.
An active powder biocide composition intended to be applied, for instance, on yarns, threads, filaments, laminated plastics, non-woven fabrics, foams, adhesives, gels, emulsions, and/or creams, resins, paints or varnishes or wood impregnation, comprising at least one copper salt and at least one zinc salt, wherein the molar ratio between the total amount of copper salts and the total amount of zinc salts is of from 10 to 1; wherein the composition comprises from 5 to 100% of a salt from group A, from 0 to 100% of a salt from group B, and from 0 to 100% of a salt from group C; wherein the percentages of each salt group are such, that the sum of the products resulting from multiplying said molar fraction of each salt group, by a numeric value assigned based on the group to which each salt belongs to, is equal to or greater than 80, in agreement with the following relation: 0.05 to 1.0 * 100 + 0 to 1.0 * 50 + 0 to 1.0 * 25 > = 80 where 100 is the numeric value assigned to salts belonging to group A, 50 the value assigned to salts belonging to group B and 25 the assigned value to salts belonging to group C; wherein the "salt from group" corresponds to one or more copper salt(s) and more than one zinc salts, or one zinc salt and more than one cooper salts, provided that each and all of the salts belong to the same group; wherein copper salts belonging to group A are selected from copper chloride (I), copper iodate (II), copper pyrithione (I), copper oxalate (II) and copper carbonate (II); copper salts belonging to group B are selected from copper phthalocyanine (I), copper iodide (I), copper thiocyanate (I), copper thiocyanate (II), copper hydroxide (I), and copper oxide (I); and cooper salts belonging to group C are selected from copper ferrocyanide (II), copper hydroxide (II), copper cyanide (I) and copper oxide (II); and wherein zinc salts belonging to group A are selected from zinc iodate, zinc tartrate, zinc pyrithione, zinc oxalate and zinc oxide; zinc salt of group B is zinc carbonate, and zinc salt of the group C is zinc cyanide.
A method of producing a composition capable of removing phosphates from a solution, comprising: (a) forming a slurry comprising calcium oxide, silicon dioxide, an alkali and water, wherein the molar ratio of the calcium oxide : the silicon dioxide : the alkali ranges from 2.43-2.97: 1.12-1.38 : 0.9-1.1, or wherein the molar ratio of the calcium oxide, silicon dioxide and liquid alkali is 2.7: 2.5: 1 respectively and the foregoing molar ratio of 2.7: 2.5: 1 may be varied independently by ±1%, ±2%, ±3%, ±4%, ±5%, ±6%, ±7%, ±8%, ±9% or ±10%; (b) subjecting the slurry to a hydrothermal process for 1 to 6 hours under 93,08 to 113,76 kPa (13.5 to 16.5 psi) of pressure in order to form the composition as a hydrothermal residue; and, (c) as an activation step, heating the hydrothermal residue at 540°C to 660°C for at least 27 minutes to produce the composition capable of removing phosphates from a solution, wherein the alkali is selected from the group consisting of magnesium hydroxide, potassium hydroxide and sodium hydroxide. (a) forming a slurry comprising calcium oxide, silicon dioxide, an alkali and water, wherein the molar ratio of the calcium oxide : the silicon dioxide : the alkali ranges from 2.43-2.97: 1.12-1.38 : 0.9-1.1, or wherein the molar ratio of the calcium oxide, silicon dioxide and liquid alkali is 2.7: 2.5: 1 respectively and the foregoing molar ratio of 2.7: 2.5: 1 may be varied independently by ±1%, ±2%, ±3%, ±4%, ±5%, ±6%, ±7%, ±8%, ±9% or ±10%; (b) subjecting the slurry to a hydrothermal process for 1 to 6 hours under 93,08 to 113,76 kPa (13.5 to 16.5 psi) of pressure in order to form the composition as a hydrothermal residue; and, (c) as an activation step, heating the hydrothermal residue at 540°C to 660°C for at least 27 minutes to produce the composition capable of removing phosphates from a solution,
A method of manufacturing an article via additive manufacturing, the method comprising: providing a first layer of a powder composition comprising: a base material; a functional particulate having at least one of an acicular morphology and a platy morphology, wherein platy morphology refers to particulates having an aspect ratio greater than 1 and the aspect ratio of the functional particulate is determined by SEM; and binder, binding the first layer of powder composition in a predetermined pattern to form a hardened two-dimensional shape comprising the powder composition; and successively providing additional layers of the powder composition and binding the respective layers to form the article via layers of the hardened two-dimensional shapes comprising the powder composition. providing a first layer of a powder composition comprising: a base material; a functional particulate having at least one of an acicular morphology and a platy morphology, wherein platy morphology refers to particulates having an aspect ratio greater than 1 and the aspect ratio of the functional particulate is determined by SEM; and binder, a base material; a functional particulate having at least one of an acicular morphology and a platy morphology, wherein platy morphology refers to particulates having an aspect ratio greater than 1 and the aspect ratio of the functional particulate is determined by SEM; and binder, binding the first layer of powder composition in a predetermined pattern to form a hardened two-dimensional shape comprising the powder composition; and successively providing additional layers of the powder composition and binding the respective layers to form the article via layers of the hardened two-dimensional shapes comprising the powder composition.
A method for calibrating an output of a light emitting diode, LED, for use in spectroscopic applications, the method comprising the steps of: determining a reference forward voltage, V f 0 , a reference forward current, I f 0 , and a reference detected intensity of emitted light, S 0 , of the LED at an initial junction temperature, T 0 ; varying the junction temperature of the LED to provide a plurality of junction temperatures T j and at each junction temperature: setting the forward current to a plurality of forward current values I f , and at each forward current: determining the deviation in the forward voltage Δ V f from the reference voltage V f 0 ; determining the deviation in forward current Δ I f from the reference current I f 0 ; and determining the deviation in detected light intensity Δ S from the reference intensity S 0 ; estimating the parameters s V , s I , s IV , s II , and s VV such that: S = S 0 + Δ S = S 0 + s V Δ V f + s I Δ I f + s IV Δ V f Δ I f + s II Δ I f 2 + s VV Δ V f 2 approximately holds for all sets of forward voltage deviation, Δ V f , forward current deviation, Δ I f , and detected intensity deviation, Δ S . determining a reference forward voltage, V f 0 , a reference forward current, I f 0 , and a reference detected intensity of emitted light, S 0 , of the LED at an initial junction temperature, T 0 ; varying the junction temperature of the LED to provide a plurality of junction temperatures T j and at each junction temperature: setting the forward current to a plurality of forward current values I f , and at each forward current: determining the deviation in the forward voltage Δ V f from the reference voltage V f 0 ; determining the deviation in forward current Δ I f from the reference current I f 0 ; and determining the deviation in detected light intensity Δ S from the reference intensity S 0 ; estimating the parameters s V , s I , s IV , s II , and s VV such that: S = S 0 + Δ S = S 0 + s V Δ V f + s I Δ I f + s IV Δ V f Δ I f + s II Δ I f 2 + s VV Δ V f 2 approximately holds for all sets of forward voltage deviation, Δ V f , forward current deviation, Δ I f , and detected intensity deviation, Δ S . setting the forward current to a plurality of forward current values I f , and at each forward current: determining the deviation in the forward voltage Δ V f from the reference voltage V f 0 ; determining the deviation in forward current Δ I f from the reference current I f 0 ; and determining the deviation in detected light intensity Δ S from the reference intensity S 0 ; determining the deviation in the forward voltage Δ V f from the reference voltage V f 0 ; determining the deviation in forward current Δ I f from the reference current I f 0 ; and determining the deviation in detected light intensity Δ S from the reference intensity S 0 ; estimating the parameters s V , s I , s IV , s II , and s VV such that: S = S 0 + Δ S = S 0 + s V Δ V f + s I Δ I f + s IV Δ V f Δ I f + s II Δ I f 2 + s VV Δ V f 2 approximately holds for all sets of forward voltage deviation, Δ V f , forward current deviation, Δ I f , and detected intensity deviation, Δ S .
Gas diffusion sleeve , in particular for being mounted such that it passes through a ground cover layer which comprises in particular asphalt, mastic asphalt, concrete, plaster, or the like, the gas diffusion sleeve comprising a sleeve head and a sleeve shaft that extends in a sleeve longitudinal direction (L), the sleeve head being fastened, in particular welded, to a longitudinal end of the sleeve shaft and comprising at least one surface which extends outside of said longitudinal end of the sleeve shaft when viewed in a projection directed in the sleeve longitudinal direction (L) and which faces the other longitudinal end of the sleeve shaft , characterised in that a groove or a plurality of grooves is/are formed in said surface and in that the one groove or each of the grooves extends or extend from the outer edge of said surface towards the sleeve shaft , in particular as far as the outer face of the sleeve shaft .
A fusion protein comprising: a DNA-binding domain having an N-terminus and a C-terminus, wherein the DNA-binding domain binds to a nucleotide target site; a Fokl cleavage domain having an N-terminus and a C-terminus, the N-terminus residues of the Fokl cleavage domain are ELEEK; and a linker between the C-terminus of the DNA-binding domain and the N-terminus of the cleavage domain, wherein the linker is LRGSPISRARPLNPHP; LRGSISRARPLNPHP; LRGSPSRARPLNPHP; LRGSSRARPLNPHP; LRGSYAPMPPLALASP; LRGSAPMPPLALASP; LRGSPMPPLALASP; or LRGSMPPLALASP. a DNA-binding domain having an N-terminus and a C-terminus, wherein the DNA-binding domain binds to a nucleotide target site; a Fokl cleavage domain having an N-terminus and a C-terminus, the N-terminus residues of the Fokl cleavage domain are ELEEK; and a linker between the C-terminus of the DNA-binding domain and the N-terminus of the cleavage domain, wherein the linker is LRGSPISRARPLNPHP; LRGSISRARPLNPHP; LRGSPSRARPLNPHP; LRGSSRARPLNPHP; LRGSYAPMPPLALASP; LRGSAPMPPLALASP; LRGSPMPPLALASP; or LRGSMPPLALASP. LRGSPISRARPLNPHP; LRGSISRARPLNPHP; LRGSPSRARPLNPHP; LRGSSRARPLNPHP; LRGSYAPMPPLALASP; LRGSAPMPPLALASP; LRGSPMPPLALASP; or LRGSMPPLALASP.
Hose clamp having a clamp band extending along a peripheral direction (L) and having a tensioning device for tensioning the clamp band , wherein at least one clip element is disposed on the clamp band , with which clip element the hose clamp can be fixed on a hose at an axially specified distance from a hose end , wherein the clip element is movably accommodated on the clamp band in peripheral direction (L), wherein the clip element has a U-shaped wrap-around having an inner leg and having an outer leg , wherein the clamp band is guided through between the legs , wherein, when the hose clamp is pulled tight, the inner leg is clamped at the hose between the clamp band and the surface of the hose , wherein at the inner leg and/or at the outer leg are provided holding tabs , characterised in that on the inner- or outer leg situated opposite the holding tabs are provided lateral wings which are formed by a widening of the inner leg in peripheral direction, wherein the holding tabs can be bent around the clamp band and about the lateral wings .
Method for producing a profiled element for sealing a structural joint, comprising the following steps: a) providing a first film on a conveyor belt, b) applying a flowable reaction mixture to an upper face of the first film; c) connecting a first side edge region of the first film to a second side edge region of the first film to create a cylindrical profiled element, wherein the volume of the flowable reaction mixture to be applied is metered such that, in the fully reacted state, said volume corresponds to the inner volume of the profiled element produced, and wherein the film completely encloses the reaction mixture, d) perforating the profiled element, e) foaming the flowable reaction mixture, f) shaping the desired profile geometry, g) venting the profiled element, h) cutting the profiled element to the desired length, i) providing a second film, and j) connecting the second film to the upper or lower outer face of the first film in the form of a loop, and wherein steps c) and j) comprise connection by means of thermal welding. a) providing a first film on a conveyor belt, b) applying a flowable reaction mixture to an upper face of the first film; c) connecting a first side edge region of the first film to a second side edge region of the first film to create a cylindrical profiled element, wherein the volume of the flowable reaction mixture to be applied is metered such that, in the fully reacted state, said volume corresponds to the inner volume of the profiled element produced, and wherein the film completely encloses the reaction mixture, d) perforating the profiled element, e) foaming the flowable reaction mixture, f) shaping the desired profile geometry, g) venting the profiled element, h) cutting the profiled element to the desired length, i) providing a second film, and j) connecting the second film to the upper or lower outer face of the first film in the form of a loop, and wherein steps c) and j) comprise connection by means of thermal welding.
A gas flow pressure conditioning apparatus for use with a pulsing insufflation machine having a set pressure, the apparatus comprising: an inlet fluid port configured to receive a flow of gas from the pulsing insufflation machine; an outlet fluid conduit configured to provide a flow of insufflation gas to a surgical site; a reservoir fluidly coupled to the inlet fluid port and the outlet fluid conduit the reservoir being an elastomeric pouch ; and characterized in that the inlet fluid port has a first inner diameter and the outlet fluid conduit has a second inner diameter larger than the first inner diameter; and in that the elastomeric pouch has a volume between approximately 5.5 liters and 8 liters such that the reservoir is sized and configured to maintain the flow of insufflation gas at the output fluid conduit at a substantially constant insufflation pressure approximating the set pressure. an inlet fluid port configured to receive a flow of gas from the pulsing insufflation machine; an outlet fluid conduit configured to provide a flow of insufflation gas to a surgical site; a reservoir fluidly coupled to the inlet fluid port and the outlet fluid conduit the reservoir being an elastomeric pouch ; and characterized in that the inlet fluid port has a first inner diameter and the outlet fluid conduit has a second inner diameter larger than the first inner diameter; and in that the elastomeric pouch has a volume between approximately 5.5 liters and 8 liters such that the reservoir is sized and configured to maintain the flow of insufflation gas at the output fluid conduit at a substantially constant insufflation pressure approximating the set pressure.