mhurhangee/patent-ind-claim-en huggingface dataset:
A totally internally reflective (TIR) image display, comprising: a front assembly having a light guide , a front sheet , a front electrode and a plurality of convex protrusions , each of the plurality of convex protrusions having a respective dark pupil area, the front assembly forming a side edge; a light source to emit light through an edge of the light guide; a back assembly forming a gap with the front assembly, the back assembly having a back plane and a rear electrode ; and a medium disposed in the gap, the medium including a plurality of electrophoretic particles movable to one of the front electrode or the rear electrode responsive to an applied bias; wherein the plurality of convex protrusions are configured to minimize the dark pupil area by the convex protrusions having a surface profile Y(x) along the width x of a convex protrusion which is described by the following equation, wherein A, w and Y 0 are constant parameters: Y x = Acosh w * x + Y 0 . a front assembly having a light guide , a front sheet , a front electrode and a plurality of convex protrusions , each of the plurality of convex protrusions having a respective dark pupil area, the front assembly forming a side edge; a light source to emit light through an edge of the light guide; a back assembly forming a gap with the front assembly, the back assembly having a back plane and a rear electrode ; and a medium disposed in the gap, the medium including a plurality of electrophoretic particles movable to one of the front electrode or the rear electrode responsive to an applied bias; wherein the plurality of convex protrusions are configured to minimize the dark pupil area by the convex protrusions having a surface profile Y(x) along the width x of a convex protrusion which is described by the following equation, wherein A, w and Y 0 are constant parameters: Y x = Acosh w * x + Y 0 .
A USB Type-C interface , comprising: • a conductive tongue ; and • a metal protective case , wherein a rear part of the conductive tongue is connected to the metal protective case , the metal protective case encloses the conductive tongue , a step is disposed on a top of a rear side of the conductive tongue , the step is configured to place a display screen , and a shape of the metal protective case matches a shape of the step , • characterized in that a cushion layer is provided on a surface of the step , wherein the cushion layer is at least one of: a flexible foam coating, a flexible resin coating, and a flexible fiber coating. • a conductive tongue ; and • a metal protective case , wherein a rear part of the conductive tongue is connected to the metal protective case , the metal protective case encloses the conductive tongue , a step is disposed on a top of a rear side of the conductive tongue , the step is configured to place a display screen , and a shape of the metal protective case matches a shape of the step , • characterized in that a cushion layer is provided on a surface of the step , wherein the cushion layer is at least one of: a flexible foam coating, a flexible resin coating, and a flexible fiber coating.
A method for wireless communication at a wireless device , comprising: identifying a high Doppler effect condition, wherein the high Doppler effect condition comprises at least one of: the speed of the wireless device being greater than a first threshold speed; a value of a parameter received from a second wireless device; feedback received from the second wireless device; or the location of the wireless device coinciding with a location of a vehicle; transmitting , during a transmission time interval, TTI , a first message using a first modulation and coding scheme, MCS, the first MCS based at least in part on identifying the high Doppler effect condition, and the first message comprising a control transmission and includes indications of a location, a heading, and a speed of the wireless device ; and transmitting , during the TTI , a second message using a second MCS, the second MCS being higher than the first MCS, wherein the second message comprises a data transmission, and wherein the second MCS is higher than the first MCS in that the second MCS comprises at least one of: an index value that is higher than an index value of the first MCS, a data rate that is higher than a data rate of the first MCS, or a coding rate that is higher than a coding rate of the first MCS. identifying a high Doppler effect condition, wherein the high Doppler effect condition comprises at least one of: the speed of the wireless device being greater than a first threshold speed; a value of a parameter received from a second wireless device; feedback received from the second wireless device; or the location of the wireless device coinciding with a location of a vehicle; transmitting , during a transmission time interval, TTI , a first message using a first modulation and coding scheme, MCS, the first MCS based at least in part on identifying the high Doppler effect condition, and the first message comprising a control transmission and includes indications of a location, a heading, and a speed of the wireless device ; and transmitting , during the TTI , a second message using a second MCS, the second MCS being higher than the first MCS, wherein the second message comprises a data transmission, and wherein the second MCS is higher than the first MCS in that the second MCS comprises at least one of: an index value that is higher than an index value of the first MCS, a data rate that is higher than a data rate of the first MCS, or a coding rate that is higher than a coding rate of the first MCS.
A cutting tool comprising a base body and a hard carbon film arranged on the base body, wherein when a cross section of the hard carbon film is observed using a high angle annular dark field scanning transmission electron microscope, an area proportion of black regions with an equivalent circle diameter of 10 nm or more is 0.7% or less, the area proportion of black regions being measured using the method described in the description, the hard carbon film is amorphous, the carbon content of the hard carbon film is 95 atom% or more, and the hard carbon film has a hydrogen content of 5 atom% or less. when a cross section of the hard carbon film is observed using a high angle annular dark field scanning transmission electron microscope, an area proportion of black regions with an equivalent circle diameter of 10 nm or more is 0.7% or less, the area proportion of black regions being measured using the method described in the description, the hard carbon film is amorphous, the carbon content of the hard carbon film is 95 atom% or more, and the hard carbon film has a hydrogen content of 5 atom% or less.
Cyclonic portable vacuum cleaner comprising: - a main body , - an air circuit comprising an aspiration air inlet and an air outlet , - a cyclonic enclosure integral with the main body , and arranged to separate the impurities from a flow of air travelling through the air circuit, wherein the main body and the cyclonic enclosure each have a base, the base of the main body comprising a main lower surface and means of bearing forming a bearing plane of the vacuum cleaner for resting on a planar support , the base of the cyclonic enclosure being offset from the bearing plane, in such a way that only the means of bearing of the base of the main body rest on the planar support , characterised in that the means of bearing comprise two longitudinal lateral ribs arranged on each side of the main lower surface of the base of the main body . - a main body , - an air circuit comprising an aspiration air inlet and an air outlet , - a cyclonic enclosure integral with the main body , and arranged to separate the impurities from a flow of air travelling through the air circuit,
An injection moulding machine with a coating unit , wherein the injection moulding machine has at least one fixed platen and one movable platen for the fastening of mould halves of at least one mould, and the coating unit has first pressure-generating and/or first pressure-directing means (8; 9; 15; 16) for coating components on a first lower pressure level (p 1 ) and second pressure-generating and/or second pressure-directing means (10; 12; 13) for the coating components on a second higher pressure level (p 2 ), characterized in that at least all the second pressure-generating and all the second pressure-directing means (10; 12; 13) are coupled in a jointly movable manner with the movable platen along a movement path of the movable platen , and that the first pressure-generating and/or the first pressure-directing means (8; 9; 15; 16) form a low pressure part (NDT) and the low pressure part (NDT) of the coating unit is arranged on a machine bed of the injection moulding machine or is set up adjacent to the injection moulding machine .
A brine resistant aqueous silica sol, comprising an aqueous colloidal silica mixture that has been surface functionalized with a polysiloxane oligomer comprising Ingredient A and Ingredient B, wherein Ingredient A is glycidoxypropyltrimethoxysilane and Ingredient B is selected from the group consisting of one or more of methacryloxypropyltrimethoxysilane, isobutyltrimethoxysilane, vinyltrimethoxysilane, trimethoxy[2-(7-oxabicyclo[4.1.0]hept-3-yl)ethyltrimethoxysilane and hexamethyldisiloxane; and wherein the colloidal silica mixture comprises silica and water, and wherein the brine resistant aqueous silica sol passes at least two of three of these brine resistant tests: (i) API Brine Visual: the silica sol remains clear and transparent/opalescent after exposure periods of 10 minutes and 24 hours in a 10 wt.% API brine solution that is prepared by dissolving 8 wt.% NaCl and 2 wt.% CaCl 2 in distilled water, (ii) 24 Hour Seawater Visual: the silica sol remains clear and transparent/opalescent after exposure periods of 10 minutes and 24 hours in artificial seawater, and (iii) API Turbidity Meter: the silica sol exhibits a change in turbidity of less than 100 NTU between an initial measurement of turbidity and a measurement after 24 hours, measured on a 10 wt.% solution in API brine according to the method of the API Brine Resistance Tests by use of a Turbidity Meter as described herein. (i) API Brine Visual: the silica sol remains clear and transparent/opalescent after exposure periods of 10 minutes and 24 hours in a 10 wt.% API brine solution that is prepared by dissolving 8 wt.% NaCl and 2 wt.% CaCl 2 in distilled water, (ii) 24 Hour Seawater Visual: the silica sol remains clear and transparent/opalescent after exposure periods of 10 minutes and 24 hours in artificial seawater, and (iii) API Turbidity Meter: the silica sol exhibits a change in turbidity of less than 100 NTU between an initial measurement of turbidity and a measurement after 24 hours, measured on a 10 wt.% solution in API brine according to the method of the API Brine Resistance Tests by use of a Turbidity Meter as described herein.
A method comprising: receiving, by a mobile device , a request from an identity and profiling system to provide a first set of information associated with a user of the mobile device to a requesting entity , the first set of information corresponding to personally identifiable information that is being requested by the requesting entity ; generating, by the mobile device , a user interface allowing the user to grant permission to provide the first set of information associated with the user to the requesting entity ; based on the user granting permission to provide the first set of information associated with the user to the requesting entity , generating, by the mobile device , a second set of information associated with the user , the second set of information indicating a set of personally identifiable information for the user that the user is permitting to be released to the requesting entity; retrieving, by the mobile device , a key associated with the user ; generating, by the mobile device , an access token by encrypting the second set of information associated with the user using the key associated with the user ; and sending, by the mobile device , the access token to the identity and profiling system . receiving, by a mobile device , a request from an identity and profiling system to provide a first set of information associated with a user of the mobile device to a requesting entity , the first set of information corresponding to personally identifiable information that is being requested by the requesting entity ; generating, by the mobile device , a user interface allowing the user to grant permission to provide the first set of information associated with the user to the requesting entity ; based on the user granting permission to provide the first set of information associated with the user to the requesting entity , generating, by the mobile device , a second set of information associated with the user , the second set of information indicating a set of personally identifiable information for the user that the user is permitting to be released to the requesting entity; retrieving, by the mobile device , a key associated with the user ; generating, by the mobile device , an access token by encrypting the second set of information associated with the user using the key associated with the user ; and sending, by the mobile device , the access token to the identity and profiling system .
Reciprocating compressor valves arrangement, comprising a main valve and a valve stop ; the main valve comprising a fixing end , at least one moving end and a flexion point ; the valve stop comprising a valve support area outlined by at least one valve support area end ; said flexion point of the main valve and the valve support area end of the valve support area of the valve stop are longitudinally misaligned among them, further comprising at least one auxiliary valve comprising at least one fixing end and at least one flexion point , said auxiliary valve being disposed between the main valve and the valve stop , the fixing end of the main valve , and the fixing end of the auxiliary valve and the valve support area of the valve stop are juxtaposed to each other, wherein the valve support area end is where contact of the valve support area with the auxiliary valve in the direction of the moving end of the main valve ends; characterized in that the flexion point of the main valve , the flexion point of the auxiliary valve and the valve support area end of the valve support area of the valve stop are longitudinally misaligned to each other. the main valve comprising a fixing end , at least one moving end and a flexion point ; the valve stop comprising a valve support area outlined by at least one valve support area end ; said flexion point of the main valve and the valve support area end of the valve support area of the valve stop are longitudinally misaligned among them, further comprising at least one auxiliary valve comprising at least one fixing end and at least one flexion point , said auxiliary valve being disposed between the main valve and the valve stop , the fixing end of the main valve , and the fixing end of the auxiliary valve and the valve support area of the valve stop are juxtaposed to each other, wherein the valve support area end is where contact of the valve support area with the auxiliary valve in the direction of the moving end of the main valve ends; characterized in that the flexion point of the main valve , the flexion point of the auxiliary valve and the valve support area end of the valve support area of the valve stop are longitudinally misaligned to each other.
A method of wireless communication performed by a network node in a wireless multi-hop network, the method comprising: determining a connection identifier associated with transmitting data to a decoder node in the wireless multi-hop network via multiple paths, wherein the connection identifier is associated with a single radio bearer between a user equipment, UE, and one of the network node or the decoder node; encoding a first portion of the data into at least a first set of packets and a second set of packets; transmitting the first set of packets with the connection identifier to the decoder node via a first path in the wireless multi-hop network; transmitting the second set of packets with the connection identifier to the decoder node via a second path in the wireless multi-hop network; receiving a response from the decoder node, wherein the response includes the connection identifier; and transmitting , to the decoder node and based at least in part on the response, one of: a third set of packets, encoded from the first portion of the data, with the connection identifier, or one or more sets of packets, encoded from a second portion of the data, with the connection identifier. determining a connection identifier associated with transmitting data to a decoder node in the wireless multi-hop network via multiple paths, wherein the connection identifier is associated with a single radio bearer between a user equipment, UE, and one of the network node or the decoder node; encoding a first portion of the data into at least a first set of packets and a second set of packets; transmitting the first set of packets with the connection identifier to the decoder node via a first path in the wireless multi-hop network; transmitting the second set of packets with the connection identifier to the decoder node via a second path in the wireless multi-hop network; receiving a response from the decoder node, wherein the response includes the connection identifier; and transmitting , to the decoder node and based at least in part on the response, one of: a third set of packets, encoded from the first portion of the data, with the connection identifier, or one or more sets of packets, encoded from a second portion of the data, with the connection identifier. a third set of packets, encoded from the first portion of the data, with the connection identifier, or one or more sets of packets, encoded from a second portion of the data, with the connection identifier.
A microfluidic device comprising: an enclosure comprising a substrate and microfluidic circuit material, the enclosure defining a flow region and at least one sequestration pen, each located within the enclosure; and at least one in situ-generated capture structure disposed within the at least one sequestration pen, wherein the at least one in situ-generated capture structure comprises a solidified polymer network and wherein the solidified polymer network comprises one or more functionalized sites and/or an assay reagent or assay analyte. an enclosure comprising a substrate and microfluidic circuit material, the enclosure defining a flow region and at least one sequestration pen, each located within the enclosure; and at least one in situ-generated capture structure disposed within the at least one sequestration pen, wherein the at least one in situ-generated capture structure comprises a solidified polymer network and wherein the solidified polymer network comprises one or more functionalized sites and/or an assay reagent or assay analyte.
Method for equipping a seat surface of a motor vehicle seat of a motor vehicle with a recess , the geometry data of which is determined using the following steps: a) determining a torso line T1 and a leg line B1 intersecting it, each of which can be assigned to a virtual dummy, with torso line T1 and leg line B1 defining a coordinate system KS with an origin U1, b) arranging the origin U1 of the coordinate system KS above the seat , c) selecting geometry data for the recess defined in relation to the coordinate system KS, with the proviso that the origin U1 lies above the recess , d) transforming the geometry data of the recess from the coordinate system KS into the intrinsic coordinate system of the motor vehicle. a) determining a torso line T1 and a leg line B1 intersecting it, each of which can be assigned to a virtual dummy, with torso line T1 and leg line B1 defining a coordinate system KS with an origin U1, b) arranging the origin U1 of the coordinate system KS above the seat , c) selecting geometry data for the recess defined in relation to the coordinate system KS, with the proviso that the origin U1 lies above the recess , d) transforming the geometry data of the recess from the coordinate system KS into the intrinsic coordinate system of the motor vehicle.
A lubricating oil deflector (20; 20', 20", 20′′′) for a speed reduction gear of a turbomachine, the deflector comprising a body having a first end intended to be disposed facing a sun gear of the reduction gear and a second opposite end , the body including two side faces each intended to be disposed facing a planet gear of the reduction gear and each connecting the first and second ends together, the body including at least one inner oil guide channel , characterized in that the first end of the body is configured to receive oil from the sun gear and the opposite second end is configured to discharge the oil from the body , the inner oil guide channel opening out at the first end and at the second end and being configured to discharge the oil by gravity through the second end .