mhurhangee/patent-ind-claim-en huggingface dataset:
A conversion apparatus for processing a dunnage material along a path, comprising: a cutting member having an edge configured for cutting or tearing the dunnage material ; a biasing member located adjacent to the cutting member and having a cutting position in which the dunnage material passes between the biasing member and the cutting member with the biasing member bending the dunnage material along a path around the edge of the cutting member so that in response to the dunnage material being retracted back into the conversion apparatus in a reverse direction, the cutting member begins to sever the dunnage material ; and a driving mechanism that drives the dunnage material in a dispensing and the reverse direction, wherein in response to the driving mechanism driving the dunnage material in the reverse direction, the biasing member is moved into the cutting position and biases the dunnage material around the edge . a cutting member having an edge configured for cutting or tearing the dunnage material ; a biasing member located adjacent to the cutting member and having a cutting position in which the dunnage material passes between the biasing member and the cutting member with the biasing member bending the dunnage material along a path around the edge of the cutting member so that in response to the dunnage material being retracted back into the conversion apparatus in a reverse direction, the cutting member begins to sever the dunnage material ; and a driving mechanism that drives the dunnage material in a dispensing and the reverse direction, wherein in response to the driving mechanism driving the dunnage material in the reverse direction, the biasing member is moved into the cutting position and biases the dunnage material around the edge .
A head-mounted display system comprising: a head-mountable frame; a plurality of emissive micro-displays supported by the frame, wherein the emissive micro-displays are configured to output image light; an optical combiner arranged to receive the image light from the micro-displays, wherein each of the micro-displays faces a different side of the optical combiner; a plurality of light redirecting structures , wherein each light redirecting structure is arranged to: receive the image light that is output from a different one of the micro-displays, and convey the image light to the optical combiner; an eyepiece supported by the frame, wherein the eyepiece is configured to receive the image light from the emissive micro-displays and to direct the image light to an eye of a user while the frame is mounted on the user, wherein the eyepiece includes a plurality of in-coupling optical elements that are laterally offset from one another as seen in a head-on view in a direction of the image light propagating toward the in-coupling optical elements; and wherein at least two of the light redirecting structures (1 080a, 1080c) are arranged to direct the image light from their respective micro-displays toward different sides of the optical combiner at a non-normal angle relative to the respective side of the optical combiner such that the image light from different micro-displays is output from a common side of the optical combiner at different angles and directed to different locations on the eyepiece corresponding to different in-coupling optical elements . a head-mountable frame; a plurality of emissive micro-displays supported by the frame, wherein the emissive micro-displays are configured to output image light; an optical combiner arranged to receive the image light from the micro-displays, wherein each of the micro-displays faces a different side of the optical combiner; a plurality of light redirecting structures , wherein each light redirecting structure is arranged to: receive the image light that is output from a different one of the micro-displays, and convey the image light to the optical combiner; an eyepiece supported by the frame, wherein the eyepiece is configured to receive the image light from the emissive micro-displays and to direct the image light to an eye of a user while the frame is mounted on the user, wherein the eyepiece includes a plurality of in-coupling optical elements that are laterally offset from one another as seen in a head-on view in a direction of the image light propagating toward the in-coupling optical elements; and wherein at least two of the light redirecting structures (1 080a, 1080c) are arranged to direct the image light from their respective micro-displays toward different sides of the optical combiner at a non-normal angle relative to the respective side of the optical combiner such that the image light from different micro-displays is output from a common side of the optical combiner at different angles and directed to different locations on the eyepiece corresponding to different in-coupling optical elements .
Polyamide composition comprising the following components, (A) 40 to 65 wt% of one or more polyamides independently selected from the group consisting of aliphatic polyamide, semi-aromatic polyamide, aromatic polyamide and their blends, based on the whole composition; (B) 1 to 7 wt% of one or more polyether polyols having a melting temperature below room temperature, based on the whole composition; (C) 30 to 55 wt% of one or more reinforcing agents, based on the whole composition; and (D) 0.5 to 30 wt% of one or more other additives, based on the whole composition, wherein the one or more polyether polyols are (poly)ethylene oxide and/or (poly)propylene oxide reacted with glycerol, diglycerol, triglycerol, pentaerythritol, dipentaerythritol, tripentaerythritol, ethane diamine, diethane diamine, toluene diamine, sorbitol, triaminopropane, triaminobenzene, and wherein the polyether polyols have a weight average molecular weight of 200 to 3000 g/mol. (A) 40 to 65 wt% of one or more polyamides independently selected from the group consisting of aliphatic polyamide, semi-aromatic polyamide, aromatic polyamide and their blends, based on the whole composition; (B) 1 to 7 wt% of one or more polyether polyols having a melting temperature below room temperature, based on the whole composition; (C) 30 to 55 wt% of one or more reinforcing agents, based on the whole composition; and (D) 0.5 to 30 wt% of one or more other additives, based on the whole composition,
Electro-optic display module comprising an electro-optic display device , a first element and a second element , wherein the first element and the second element are connected to each other, and the first element carries the electro-optic display device , and the first element and the second element are connected by at least one silicone body , wherein the silicone body is made of silicone , characterized in that the at least one silicone body is made of electrically conductive silicone.
A computer-implemented method of splitting whole building energy consumption, the method comprising: determining total energy consumption for a building; collecting sensor data from sensors available in conventional building systems, including a plurality Variable Air Volume (VAV) boxes in a building, an electric meter in the building, and a gas meter in the building; splitting total heating energy consumption across a plurality of zones within the building using the sensor data, thereby yielding heating energy consumption for each zone, wherein the plurality of zones corresponding to individual VAV boxes within the building; splitting total cooling energy consumption across the plurality of zones using the sensor data, thereby yielding cooling energy consumption for each zone; splitting total ventilation energy consumption across the plurality of zones using the sensor data, thereby yielding ventilation energy consumption for each zone; for each zone, determining zone energy consumption by aggregating the heating energy consumption for the zone, the cooling energy consumption for the zone, and the ventilation energy consumption for the zone. determining total energy consumption for a building; collecting sensor data from sensors available in conventional building systems, including a plurality Variable Air Volume (VAV) boxes in a building, an electric meter in the building, and a gas meter in the building; splitting total heating energy consumption across a plurality of zones within the building using the sensor data, thereby yielding heating energy consumption for each zone, wherein the plurality of zones corresponding to individual VAV boxes within the building; splitting total cooling energy consumption across the plurality of zones using the sensor data, thereby yielding cooling energy consumption for each zone; splitting total ventilation energy consumption across the plurality of zones using the sensor data, thereby yielding ventilation energy consumption for each zone; for each zone, determining zone energy consumption by aggregating the heating energy consumption for the zone, the cooling energy consumption for the zone, and the ventilation energy consumption for the zone.
An electronic device , comprising: a display in which a fingerprint recognition area is formed in at least one portion thereof, wherein the display includes a display panel formed as an active-matrix organic light-emitting diode panel; a fingerprint sensor disposed under the display and adapted to acquire image information to be used for authentication of a fingerprint corresponding to an object that approaches the fingerprint recognition area using at least partially light radiated from the display and reflected by the object; a processor adapted to control at least one function of the fingerprint sensor used for the acquiring of the image information, a rear panel formed under the display , wherein the rear panel includes an opening aligned with the fingerprint sensor and the fingerprint recognition area, wherein a bracket is disposed under the rear panel to support the display , wherein the bracket includes a sensor accommodating area formed as a recess in which the fingerprint sensor is accommodated; wherein a printed circuit board is disposed under the bracket , the printed circuit board comprising a processor that supplies a signal related to driving of the fingerprint sensor ; and wherein an air gap (620, 620_1, 620_2) is formed between the display and the fingerprint sensor . a display in which a fingerprint recognition area is formed in at least one portion thereof, wherein the display includes a display panel formed as an active-matrix organic light-emitting diode panel; a fingerprint sensor disposed under the display and adapted to acquire image information to be used for authentication of a fingerprint corresponding to an object that approaches the fingerprint recognition area using at least partially light radiated from the display and reflected by the object; a processor adapted to control at least one function of the fingerprint sensor used for the acquiring of the image information, a rear panel formed under the display , wherein the rear panel includes an opening aligned with the fingerprint sensor and the fingerprint recognition area, wherein the bracket includes a sensor accommodating area formed as a recess in which the fingerprint sensor is accommodated; wherein a printed circuit board is disposed under the bracket , the printed circuit board comprising a processor that supplies a signal related to driving of the fingerprint sensor ; and wherein an air gap (620, 620_1, 620_2) is formed between the display and the fingerprint sensor .
A cooling system for cooling of a combustion engine and a WHR-system in a vehicle , wherein the cooling system comprises an engine inlet line directing a circulating coolant to the combustion engine , a condenser inlet line directing coolant to a condenser in which it is configured to cool a working medium in the WHR- system, a first radiator configured to cool coolant to a first temperature (T 1 ), a second radiator configured to receive coolant from the first radiator and to cool the coolant to a second temperature (T 2 ) before the coolant is directed to the condenser inlet line , a radiator bypass line directing coolant past the radiators and to the engine inlet line , a first valve device configured to receive coolant from an engine outlet line and direct it to the radiator bypass line and/or to the radiators , characterized in that the cooling system comprises a second valve device configured to receive coolant from the first radiator and direct it to the condenser inlet line and /or, via a condenser bypass line , to the engine inlet line , and a control unit configured to control the first valve device and the second valve device such that coolant of a suitable temperature is directed , via the engine inlet line , to the combustion engine and that coolant of a suitable temperature is directed, via the condenser inlet line , to the condenser .
An actuation device for a lifting system for door leaves (A) of furniture (M), said actuation device comprising: - a fixing plate that can be connected to the body of the piece of furniture (M), - a supporting lever for the door leaf (A), which is connected, so that it can oscillate, to the fixing plate at a fulcrum and comprises, at the fulcrum , a connecting portion that extends eccentrically with respect to the fulcrum , - elastic means that comprise a body for accommodating at least one elastic element , wherein the actuation device comprises an intermediate connecting lever that comprises two opposite ends, a first end of the intermediate connecting lever being coupled, so that it can oscillate, to the connecting portion of the supporting lever , at a first pivot , the body of said elastic means having at least one first end which is coupled, so that it can oscillate and rotate, to the fixing plate and a second, opposite end that has a second pivot , a second end of the intermediate connecting lever being coupled, so that it can oscillate, to the body of said elastic means , at the second pivot , said intermediate connecting lever comprising an actuation surface or cam which is arranged substantially at the second pivot , said elastic means further comprising a pusher that is supported so that it can move longitudinally by said accommodation body and is pressed by the at least one elastic element , said cam cooperating with said pusher , said pusher moving along a curved portion of the cam . - a fixing plate that can be connected to the body of the piece of furniture (M), - a supporting lever for the door leaf (A), which is connected, so that it can oscillate, to the fixing plate at a fulcrum and comprises, at the fulcrum , a connecting portion that extends eccentrically with respect to the fulcrum , - elastic means that comprise a body for accommodating at least one elastic element ,
An injection device for delivering a medicament from a syringe contained, in use, within a housing of the device , the device being configured to move the syringe through the housing to cause insertion of a needle of the syringe into a user's skin and to subsequently move a bung of the syringe through a syringe body to deliver medicament through the needle , the device comprising: a plunger for engaging with said bung ; a sleeve located around the plunger ; an insertion spring biasing the sleeve relative to the housing ; a delivery spring biasing the plunger relative to the sleeve ; a release mechanism for releasing the sleeve from the housing to commence insertion and for releasing the plunger from the sleeve , following insertion, to commence delivery of the medicament, and a velocity regulator for regulating the velocity of the plunger upon its release from the sleeve and for disengaging from the plunger during delivery, the velocity regulator comprising a screw thread associated with one of the sleeve and the plunger and one or more thread engaging members formed on the other of the sleeve and the plunger , and wherein said release mechanism comprises features fixed relative to the housing and being in engagement with said screw thread prior to and during insertion and being disengaged with the screw thread following insertion. a plunger for engaging with said bung ; a sleeve located around the plunger ; an insertion spring biasing the sleeve relative to the housing ; a delivery spring biasing the plunger relative to the sleeve ; a release mechanism for releasing the sleeve from the housing to commence insertion and for releasing the plunger from the sleeve , following insertion, to commence delivery of the medicament, and a velocity regulator for regulating the velocity of the plunger upon its release from the sleeve and for disengaging from the plunger during delivery, the velocity regulator comprising a screw thread associated with one of the sleeve and the plunger and one or more thread engaging members formed on the other of the sleeve and the plunger , and wherein said release mechanism comprises features fixed relative to the housing and being in engagement with said screw thread prior to and during insertion and being disengaged with the screw thread following insertion.
A solid oral dosage form comprising liposomes, said liposomes comprising a conjugate of (a) at least one type of cell penetrating peptide (CPP), and (b) a compound, selected from a lipid and a fatty acid; wherein said conjugate is part of the liposome's lipid double layer; wherein the dosage form is a gastro-resistant solid oral dosage form. (a) at least one type of cell penetrating peptide (CPP), and (b) a compound, selected from a lipid and a fatty acid;
An apparatus for separating lighter components of a hydrocarbon product comprising: a) a storage container tank ; b) an inlet located at or near the bottom of the apparatus, wherein the inlet is fluidly connected to a vertical inner pipe and is configured to receive incoming hydrocarbon product, the inner pipe providing a passageway through which the hydrocarbon product is routed upwards to a vapor space of the container tank ; c) a distribution screen located near or top of the apparatus, wherein the distribution screen provides an interface for single stage flash evaporation upon spray, impingement and/or agitation of the hydrocarbon product thereby resulting in a processed hydrocarbon product; characterized in that d) the inner pipe is disposed in an outer pipe , wherein the inner pipe and the outer pipe extend vertically within the container tank; and characterized by : e) a secondary area for vapor-liquid separation located below the distribution screen in the annular space between the inner and outer pipes, wherein the secondary area includes a packed bed that provides additional separation of components of the hydrocarbon product; and f) an annular downward flow path for the processed hydrocarbon product, which provides a barrier against heat transfer between incoming hydrocarbon product in the inner pipe and bulk surrounding fluid stored in the container tank. a) a storage container tank ; b) an inlet located at or near the bottom of the apparatus, wherein the inlet is fluidly connected to a vertical inner pipe and is configured to receive incoming hydrocarbon product, the inner pipe providing a passageway through which the hydrocarbon product is routed upwards to a vapor space of the container tank ; c) a distribution screen located near or top of the apparatus, wherein the distribution screen provides an interface for single stage flash evaporation upon spray, impingement and/or agitation of the hydrocarbon product thereby resulting in a processed hydrocarbon product; characterized in that d) the inner pipe is disposed in an outer pipe , wherein the inner pipe and the outer pipe extend vertically within the container tank; and characterized by : e) a secondary area for vapor-liquid separation located below the distribution screen in the annular space between the inner and outer pipes, wherein the secondary area includes a packed bed that provides additional separation of components of the hydrocarbon product; and f) an annular downward flow path for the processed hydrocarbon product, which provides a barrier against heat transfer between incoming hydrocarbon product in the inner pipe and bulk surrounding fluid stored in the container tank.
A manufacturing method of a non-oriented electrical steel sheet, comprising: performing hot-rolling of a steel material so as to form a steel strip, the steel material consisting of, in mass%: Si: not less than 0.1% nor more than 4.0%; Al: not less than 0.1% nor more than 3.0%; Mn: not less than 0.1% nor more than 2.0%; one or two selected from the group consisting of Cu: not less than 0.1% nor more than 1.0%, and Cr: not less than 0.2% nor more than 10.0%; C: 0.003% or less; optionally Sn: not less than 0.02% nor more than 0.40%; and optionally P: 0.15% or less; a balance being composed of Fe and inevitable impurity elements; next, performing first cold-rolling of the steel strip; next, performing intermediate annealing of the steel strip; next, performing second cold-rolling of the steel strip; and next, performing finish annealing of the steel strip, wherein a finish temperature in the hot-rolling is 900°C or less, the first cold-rolling is started without performing annealing after the hot-rolling; and a rolling reduction in the second cold-rolling is not less than 40% nor more than 85%. performing hot-rolling of a steel material so as to form a steel strip, the steel material consisting of, in mass%: Si: not less than 0.1% nor more than 4.0%; Al: not less than 0.1% nor more than 3.0%; Mn: not less than 0.1% nor more than 2.0%; one or two selected from the group consisting of Cu: not less than 0.1% nor more than 1.0%, and Cr: not less than 0.2% nor more than 10.0%; C: 0.003% or less; optionally Sn: not less than 0.02% nor more than 0.40%; and optionally P: 0.15% or less; a balance being composed of Fe and inevitable impurity elements; Si: not less than 0.1% nor more than 4.0%; Al: not less than 0.1% nor more than 3.0%; Mn: not less than 0.1% nor more than 2.0%; one or two selected from the group consisting of Cu: not less than 0.1% nor more than 1.0%, and Cr: not less than 0.2% nor more than 10.0%; C: 0.003% or less; optionally Sn: not less than 0.02% nor more than 0.40%; and optionally P: 0.15% or less; a balance being composed of Fe and inevitable impurity elements; next, performing first cold-rolling of the steel strip; next, performing intermediate annealing of the steel strip; next, performing second cold-rolling of the steel strip; and next, performing finish annealing of the steel strip, wherein a finish temperature in the hot-rolling is 900°C or less, the first cold-rolling is started without performing annealing after the hot-rolling; and a rolling reduction in the second cold-rolling is not less than 40% nor more than 85%.
A-dielectric barrier discharge VUV excimer lamp comprising an elongated dielectric tube for holding an excimer-forming gas , a first electrode disposed within said tube , a second electrode arranged outside of said tube, characterized in that the dielectric barrier discharge VUV excimer lamp comprises at least one spring, wherein said first electrode is - a wire electrode disposed along a centre axis of the dielectric tube , which is tensioned and centered with the at least one spring attached to at least one side of the wire electrode , - axially symmetric with respect to the centre axis and - physically connected to each end of the dielectric tube . - a wire electrode disposed along a centre axis of the dielectric tube , which is tensioned and centered with the at least one spring attached to at least one side of the wire electrode , - axially symmetric with respect to the centre axis and - physically connected to each end of the dielectric tube .