mhurhangee/patent-ind-claim-en huggingface dataset:
A microfluidic cartridge comprising: an interior ; an exterior ; a reservoir disposed in the interior of the microfluidic cartridge and a fluid composition comprising a perfume mixture, contained within the reservoir; an electric circuit disposed on the exterior of the microfluidic cartridge , the electric circuit comprises a first end portion having electrical contacts and a second end portion opposing the first end portion ; a microfluidic die disposed on the exterior of the microfluidic cartridge , wherein the microfluidic die is electrically connected with the second end portion of the electric circuit and in fluid communication with the reservoir ; and a silicone pressure-sensitive adhesive joining the electric circuit with the exterior of the microfluidic cartridge . an interior ; an exterior ; a reservoir disposed in the interior of the microfluidic cartridge and a fluid composition comprising a perfume mixture, contained within the reservoir; an electric circuit disposed on the exterior of the microfluidic cartridge , the electric circuit comprises a first end portion having electrical contacts and a second end portion opposing the first end portion ; a microfluidic die disposed on the exterior of the microfluidic cartridge , wherein the microfluidic die is electrically connected with the second end portion of the electric circuit and in fluid communication with the reservoir ; and a silicone pressure-sensitive adhesive joining the electric circuit with the exterior of the microfluidic cartridge .
A computer-implemented method of measuring seismic data quality, comprising: acquiring pre-stack seismic data for a seismic survey for an area of interest; comparing predicted attributes to related attributes associated with the pre-stack seismic data to generate data quality measurements for each of a plurality of locations within the seismic survey, wherein the predicted attributes are geophysically or geologically constrained; and displaying the data quality measurements to a user to illustrate differences in seismic data quality for the plurality of locations within the seismic survey, the method being characterized in that : the related attributes are obtained from the pre-stack seismic data ; and the predicted attributes and the related attributes are seismic amplitude and angle of incidence, or seismic amplitude and offset, attributes, and wherein comparing the predicted attributes to the related attributes comprises comparing a predicted relationship between attributes to a measured relationship between the related attributes obtained from the seismic data. acquiring pre-stack seismic data for a seismic survey for an area of interest; comparing predicted attributes to related attributes associated with the pre-stack seismic data to generate data quality measurements for each of a plurality of locations within the seismic survey, wherein the predicted attributes are geophysically or geologically constrained; and displaying the data quality measurements to a user to illustrate differences in seismic data quality for the plurality of locations within the seismic survey, the method being characterized in that : the related attributes are obtained from the pre-stack seismic data ; and the predicted attributes and the related attributes are seismic amplitude and angle of incidence, or seismic amplitude and offset, attributes, and wherein comparing the predicted attributes to the related attributes comprises comparing a predicted relationship between attributes to a measured relationship between the related attributes obtained from the seismic data. the related attributes are obtained from the pre-stack seismic data ; and the predicted attributes and the related attributes are seismic amplitude and angle of incidence, or seismic amplitude and offset, attributes, and wherein comparing the predicted attributes to the related attributes comprises comparing a predicted relationship between attributes to a measured relationship between the related attributes obtained from the seismic data.
A method of controlling feeding of reducing agent into an exhaust system of an internal combustion engine , the exhaust system being provided with one or more SCR elements for selective catalytic reduction, the method comprising the steps of - determining a first concentration in exhaust gas stream on the downstream side of the SCR elements and upstream from any oxidation catalyst arranged on the downstream side of the SCR elements , the first concentration being the concentration of NO x , - determining a second concentration in the exhaust gas stream in the same location as the first concentration, wherein the second concentration is the combined concentration of NO x and NH 3 and the second concentration is determined by using a NO x sensor that is cross-sensitive to NH 3 , - comparing the first concentration to a first predetermined limit value , - comparing the second concentration to a second predetermined limit value , and - decreasing the reducing agent feeding into the exhaust system in case the first concentration is below the first predetermined limit value and the second concentration is above the second predetermined limit value . - determining a first concentration in exhaust gas stream on the downstream side of the SCR elements and upstream from any oxidation catalyst arranged on the downstream side of the SCR elements , the first concentration being the concentration of NO x , - determining a second concentration in the exhaust gas stream in the same location as the first concentration, wherein the second concentration is the combined concentration of NO x and NH 3 and the second concentration is determined by using a NO x sensor that is cross-sensitive to NH 3 , - comparing the first concentration to a first predetermined limit value , - comparing the second concentration to a second predetermined limit value , and - decreasing the reducing agent feeding into the exhaust system in case the first concentration is below the first predetermined limit value and the second concentration is above the second predetermined limit value .
Gas turbine combustion chamber having a combustion chamber wall and having at least one shingle , which is fastened thereto so as to be spaced apart from the combustion chamber wall , wherein the shingle has a shingle edge which bears against the combustion chamber wall , wherein the combustion chamber wall and the combustion chamber shingle each have at least one mixing-air hole , and wherein a tubular fastening element provided with an annular flange is inserted through the mixing-air hole of the combustion chamber wall and bears, with the annular flange , against that side of the combustion chamber wall which is averted from the combustion chamber shingle , characterized in that the fastening element is provided on its outer side with first locking means , which engage with second locking means formed on a tubular locking element which braces the combustion chamber shingle with the combustion chamber wall , wherein the locking element and/or the fastening element are of elastic form in the region of the locking means for the purpose of locking the locking means , and wherein the locking element has a height which is smaller than the height of the shingle edge .
Method for decontaminating bulk food and/or feed material, in particular raw food and/or feed materials, comprising the following method steps: - introducing the bulk material into a rotary tube dryer, - increasing the temperature of the bulk material by means of at least one infrared emitter up to a defined treatment temperature range while at the same time rotating the bulk material, - maintaining the temperature of the bulk material in the treatment temperature range during a treatment phase by means of the infrared emitter while at the same time rotating the bulk material, - reducing the temperature of the bulk material to a discharge temperature while at the same time rotating the bulk material, - discharging the bulk material from the rotary tube dryer, characterized in that , for quickly increasing the temperature of the bulk material, water is sprayed, preferably as a water aerosol or as saturated steam, into the light cone of the infrared and/or ultraviolet emitter by means of a device for spraying in steam or water. - introducing the bulk material into a rotary tube dryer, - increasing the temperature of the bulk material by means of at least one infrared emitter up to a defined treatment temperature range while at the same time rotating the bulk material, - maintaining the temperature of the bulk material in the treatment temperature range during a treatment phase by means of the infrared emitter while at the same time rotating the bulk material, - reducing the temperature of the bulk material to a discharge temperature while at the same time rotating the bulk material, - discharging the bulk material from the rotary tube dryer, characterized in that , for quickly increasing the temperature of the bulk material, water is sprayed, preferably as a water aerosol or as saturated steam, into the light cone of the infrared and/or ultraviolet emitter by means of a device for spraying in steam or water.
A cutting head for a T-slot cutter comprising: opposing cutting head top and intermediate surfaces extending perpendicular to a head rotation axis (A) defining an axial direction of the cutting head, and a head peripheral surface extending therebetween; cutting portions located along the head peripheral surface ; a head protrusion extending from the cutting head intermediate surface and comprising a head torque-transfer portion ; a cutting head abutment surface ; a head bore coaxial with the head rotation axis (A), the head bore extending between, and opening out to, the cutting head top surface and the head protrusion ; and a head centering portion ; characterized in that the head centering portion is distinct from the head torque-transferring portion and located at an axial position different therefrom, along the head rotation axis (A). opposing cutting head top and intermediate surfaces extending perpendicular to a head rotation axis (A) defining an axial direction of the cutting head, and a head peripheral surface extending therebetween; cutting portions located along the head peripheral surface ; a head protrusion extending from the cutting head intermediate surface and comprising a head torque-transfer portion ; a cutting head abutment surface ; a head bore coaxial with the head rotation axis (A), the head bore extending between, and opening out to, the cutting head top surface and the head protrusion ; and a head centering portion ; characterized in that the head centering portion is distinct from the head torque-transferring portion and located at an axial position different therefrom, along the head rotation axis (A).
A method of weight determination of a load carried by a lifter of a lifting device , whereby the weight determination is based on at least one upward and one downward displacement of the lifter , whereby the lifter is displaced by means of a hydraulic actuator comprised by a hydraulic system, whereby, during the upward and downward displacement of the lifter , a pressure in the hydraulic system is measured by means of a pressure sensor , thereby providing a pressure signal, and a parameter dependent on the position of the lifter is measured by means of a meter, thereby providing a position signal, and whereby the weight of the load is determined on the basis of the pressure signal and the position signal, wherein the position signal is registered as a function of time, wherein an acceleration dependent parameter is determined on the basis of the variation of the position signal, and wherein the weight determination is performed in dependence of said acceleration dependent parameter, charcterized in that during the upward and downward displacement of the lifter, the flow of a hydraulic fluid through the hydraulic system is limited by a bi-directional flow controller , such that the hydraulic fluid is supplied to an inlet opening of the bi-directional flow controller , said hydraulic fluid then flows through a first one-way valve , a central path , a flow limiting valve and exits the central path through a fourth one-way valve and an outlet opening to the hydraulic actuator , and wherein during the downward displacement of the lifter, the flow of a hydraulic fluid through the hydraulic system is limited by the bi-directional flow controller , such that the hydraulic fluid flows through the outlet opening of the bi-directional flow controller , said hydraulic fluid then flows through a second one-way valve , the central path , the flow limiting valve and exits the central path through a third one-way valve and the inlet opening , towards a hydraulic tank .
An orthodontic bracket comprising a bracket pad , and a bracket body extending from the bracket pad, the bracket having a slot for receiving an orthodontic archwire, the slot extending through the bracket body along an archwire axis (W) and having a proximal slot side face and a distal side face , the proximal side face being arranged closer to the pad than the distal side face, and wherein the proximal and distal side face extending parallel to the archwire axis and further parallel to an archwire insertion axis (I) that is perpendicular to the archwire axis, the slot further having a slot ground face that extends parallel to the archwire axis and further parallel to a slot cross axis (C) that is perpendicular to the archwire axis and the archwire insertion axis, wherein the bracket has at least one archwire support structure that forms a support surface in a plane of the slot ground face and spaced from the slot ground face, and wherein the archwire support structure forms a flat and protrudes in a dimension generally parallel to the slot cross axis.
A process for depositing a multi-layers coating stack on a flat glass substrate comprising depositing by sputtering under vacuum at least a first layer in a first depositing zone having a first atmosphere type and at least a second layer in a second depositing zone having a second atmosphere type which is separated from the first atmosphere type by a separation zone, wherein the flat glass substrate moves from the first depositing zone to the second depositing zone through the separation zone along a conveying path in an uninterrupted way, characterised in that a gas is injected into the separation zone in the vicinity of the conveying path in order to increase the separation factor between the two atmosphere types.
A device, comprising: (a) a firearm having a top surface with a first portion and a second portion , said first portion and said second portion being defined by a step , said step having a height; (b) an adaptor plate operable to fit into said second portion of said top surface, said adaptor plate having a thickness not thicker than said height of said step, said adaptor plate having a first configuration comprising at least one mounting feature and defining a topography of the adaptor plate; and (c) an optical sight having a bottom surface and wherein said bottom surface of said optical sight is fastened directly to said first portion of said top surface and extends over said adaptor plate, said adaptor plate being in said second portion, said bottom surface of said optical sight having a second configuration comprising at least one topographical feature which is complementary to the at least one mounting feature such that the at least one topographical feature of the optical sight mates to the at least one mounting feature of the adaptor plate, said adaptor plate being operable to align said optical sight with respect to said top surface of said firearm. (a) a firearm having a top surface with a first portion and a second portion , said first portion and said second portion being defined by a step , said step having a height; (b) an adaptor plate operable to fit into said second portion of said top surface, said adaptor plate having a thickness not thicker than said height of said step, said adaptor plate having a first configuration comprising at least one mounting feature and defining a topography of the adaptor plate; and (c) an optical sight having a bottom surface and wherein said bottom surface of said optical sight is fastened directly to said first portion of said top surface and extends over said adaptor plate, said adaptor plate being in said second portion, said bottom surface of said optical sight having a second configuration comprising at least one topographical feature which is complementary to the at least one mounting feature such that the at least one topographical feature of the optical sight mates to the at least one mounting feature of the adaptor plate, said adaptor plate being operable to align said optical sight with respect to said top surface of said firearm.
A peptide consisting of the sequence: (R 1 ) x -P-(R 2 )y, wherein P is the amino acid sequence of SEQ ID NO:68; R 1 is an amino acid sequence consisting of from 1 to 5 amino acids; R 2 is an amino acid sequence consisting of from 1 to 5 amino acids; and each of x and y are independently zero or one. wherein P is the amino acid sequence of SEQ ID NO:68; R 1 is an amino acid sequence consisting of from 1 to 5 amino acids; R 2 is an amino acid sequence consisting of from 1 to 5 amino acids; and each of x and y are independently zero or one.
A component for mechanical connection to a handling device to form a medical instrument , comprising: a shaft ; a transmission device which can be moved in the shaft for transmitting a force from a handling device coupled to the proximal end of the component to a tool at the distal end of the component ; an abutment surface on the shaft ; an abutment surface on the transmission device , wherein the abutment surface of the shaft and the abutment surface of the transmission device are arranged such that a mechanical contact between the abutment surface of the transmission device and the abutment surface of the shaft proximally limits a movement of the transmission device relative to the shaft , characterised in that the transmission device has its minimum cross-sectional area in a section distal to the abutment surface of the transmission device , all cross-sectional areas of the transmission device proximal to the abutment surface of the transmission device are greater than the minimum cross-sectional area of the transmission device . a shaft ; a transmission device which can be moved in the shaft for transmitting a force from a handling device coupled to the proximal end of the component to a tool at the distal end of the component ; an abutment surface on the shaft ; an abutment surface on the transmission device , wherein the abutment surface of the shaft and the abutment surface of the transmission device are arranged such that a mechanical contact between the abutment surface of the transmission device and the abutment surface of the shaft proximally limits a movement of the transmission device relative to the shaft , characterised in that the transmission device has its minimum cross-sectional area in a section distal to the abutment surface of the transmission device , all cross-sectional areas of the transmission device proximal to the abutment surface of the transmission device are greater than the minimum cross-sectional area of the transmission device .
Identification document having a contactless chip or mixed-operation contact-based and contactless chip, able to communicate by radiofrequency with an external reader , and comprising a body into which is integrated at least one antenna , a first electronic module provided with a microelectronic chip , at least one second electronic module designed to be able to communicate with said first electronic module , and an optical path arranged between said first electronic module and said at least one second electronic module , said electronic modules being physically separated and spaced apart in the body of the identification document and each comprising an optical interface (30, 31; 36, 37), characterized in that each of the electronic modules comprises a droplet of coating resin configured so as to protect said optical interfaces and made of a material which is optically transparent to at least certain wavelengths of light, and said coating droplets being optically coupled across said optical path .
Screen for realizing partitions for outdoor use, comprising: - a fixed bottom element ; - an intermediate element vertically sliding to said first fixed element between a first position, in which it projects almost completely in vertical direction to said first fixed element , and a second position, in which it is lowered up to overlap, in front view, to said first fixed element ; - a terminal movable element vertically sliding to said intermediate element between a first position, in which it projects almost completely, and a second position, in which it is overlapped, in front view, to said intermediate element , each one of said elements comprising a transparent panel fixed to a frame made up of a couple of vertical uprights , characterized in that each one of said uprights comprises a housing configured to allow coupling by means of screws of said respective transparent panel and a flat abutting surface, adjacent from both sides to said housing and positioned in parallel direction to the respective transparent panel, and in that the vertical uprights of said first fixed element comprise a through vertical recess , facing the screen centre and such shaped and dimensioned that it houses the section bars of the intermediate element in sliding manner, and the vertical uprights of said intermediate element comprise a through vertical recess , facing the screen centre and such shaped and dimensioned that it houses the section bars of the terminal element in sliding manner. - a fixed bottom element ; - an intermediate element vertically sliding to said first fixed element between a first position, in which it projects almost completely in vertical direction to said first fixed element , and a second position, in which it is lowered up to overlap, in front view, to said first fixed element ; - a terminal movable element vertically sliding to said intermediate element between a first position, in which it projects almost completely, and a second position, in which it is overlapped, in front view, to said intermediate element ,
A magnetic resonance safe touchscreen display , comprising: a touchscreen ; a film including a high frequency shielding layer and a low frequency shielding layer , the film being disposed adjacent to a rear face of the touchscreen ; a display component adjacent to the low frequency shielding layer ; and a bus bar ; characterized in that the bus bar is conductively coupling the low frequency shielding layer to the high frequency shielding layer around a perimeter of a face of the film and a corresponding edge thereof; wherein the magnetic resonance safe touchscreen display further comprises: an etching through the low frequency layer and immediately proximate to the high frequency layer , wherein the bus bar conductively couples the low frequency shielding layer to the high frequency shielding layer in accordance with the etching . a touchscreen ; a film including a high frequency shielding layer and a low frequency shielding layer , the film being disposed adjacent to a rear face of the touchscreen ; a display component adjacent to the low frequency shielding layer ; and a bus bar ; wherein the magnetic resonance safe touchscreen display further comprises: an etching through the low frequency layer and immediately proximate to the high frequency layer , wherein the bus bar conductively couples the low frequency shielding layer to the high frequency shielding layer in accordance with the etching .