mhurhangee/patent-ind-claim-en huggingface dataset:
Vehicle lighting device (30; 56A; 56B; 60; 70; 80; 110), comprising: a light source (32; 41; 54A; 54B; 81; 111; 122) and a refractive diffuser (31; 42; 50; 63; 74; 83; 113; 121), wherein light from the light source (32; 41; 54A; 54B; 81; 111) reaches an observer through the refractive diffuser (31; 42; 50; 63; 74; 83; 113; 121) for the purpose of producing a lighting signature (43; 55A; 55B; 62A; 62B; 72; 73; 90; 123A, 123B, 123C) on the basis of light from the light source (32; 41; 54A; 54B; 81; 111) and as one or more virtual or real images, which have desired shapes and/or intensity distributions and are located in a respective plane, wherein the refractive diffuser (31; 42; 50; 63; 74; 83; 113; 121) has a statistical continuous surface profile calculated by way of wave optics. a light source (32; 41; 54A; 54B; 81; 111; 122) and a refractive diffuser (31; 42; 50; 63; 74; 83; 113; 121), wherein light from the light source (32; 41; 54A; 54B; 81; 111) reaches an observer through the refractive diffuser (31; 42; 50; 63; 74; 83; 113; 121) for the purpose of producing a lighting signature (43; 55A; 55B; 62A; 62B; 72; 73; 90; 123A, 123B, 123C) on the basis of light from the light source (32; 41; 54A; 54B; 81; 111) and as one or more virtual or real images, which have desired shapes and/or intensity distributions and are located in a respective plane, wherein the refractive diffuser (31; 42; 50; 63; 74; 83; 113; 121) has a statistical continuous surface profile calculated by way of wave optics.
An information interaction method, characterized by comprising: receiving (S110, S210, S310, S410, S510, S610), by an electronic device, a mail-based collaboration request sent by an inviter party based on a target mail, wherein the target mail comprises a plurality of associated mails having same feature information, and the same feature information comprises at least one of: a same subject, a sending time being within a preset time range, a same sender, a same recipient, a reply reference relationship or a forwarding reference relationship; creating (S120, S220, S320, S420), by the electronic device, a collaboration group comprising the inviter party and an invitee party according to the mail-based collaboration request, wherein in the collaboration group, the inviter party and the invitee party are able to perform information interaction, and wherein the information interaction comprises at least one of text interaction, voice interaction, video interaction and collaborative editing; receiving (S230, S330), by the electronic device, an operation instruction for the collaboration group from the inviter party, wherein the operation instruction comprises one of: group disbanding, group attribute setting, group function implementation, privilege revoking during the group disbanding and privilege transfer when a group owner drops out of the group; and performing (S240, S340), by the electronic device, an operation on the collaboration group according to the operation instruction. receiving (S110, S210, S310, S410, S510, S610), by an electronic device, a mail-based collaboration request sent by an inviter party based on a target mail, wherein the target mail comprises a plurality of associated mails having same feature information, and the same feature information comprises at least one of: a same subject, a sending time being within a preset time range, a same sender, a same recipient, a reply reference relationship or a forwarding reference relationship; creating (S120, S220, S320, S420), by the electronic device, a collaboration group comprising the inviter party and an invitee party according to the mail-based collaboration request, wherein in the collaboration group, the inviter party and the invitee party are able to perform information interaction, and wherein the information interaction comprises at least one of text interaction, voice interaction, video interaction and collaborative editing; receiving (S230, S330), by the electronic device, an operation instruction for the collaboration group from the inviter party, wherein the operation instruction comprises one of: group disbanding, group attribute setting, group function implementation, privilege revoking during the group disbanding and privilege transfer when a group owner drops out of the group; and performing (S240, S340), by the electronic device, an operation on the collaboration group according to the operation instruction.
A method of communication at a ground network , comprising: determining a neighbor cell list that includes at least one start angle and span for at least one satellite for a next cell reselection of a user terminal ; and sending via satellite the neighbor cell list to the user terminal in a Broadcast Information Block, BIB, message, wherein said BIB message comprises a number of segments, each segment comprising a corresponding sequence number relating to the neighbor cell list and a portion of the neighbor cell list. determining a neighbor cell list that includes at least one start angle and span for at least one satellite for a next cell reselection of a user terminal ; and sending via satellite the neighbor cell list to the user terminal in a Broadcast Information Block, BIB, message, wherein said BIB message comprises a number of segments, each segment comprising a corresponding sequence number relating to the neighbor cell list and a portion of the neighbor cell list.
A preparation method of a compound shown in formula I, wherein R 1 is COOH, X is (CH 2 ) m , m is ranged from 10 to 20, R 2 is n is 1 or 2; the preparation method comprising the following steps: carrying out a condensation reaction on H-R 2 and R 5 N-Glu(OR 4 )-OR 3 , wherein R 3 is a carboxyl protecting group, R 4 is a carboxyl activating group, and R 5 is an amino protecting group, a compound shown in formula II is obtained; removing the carboxyl protecting group R 3 and the amino protecting group R 5 of the compound shown in formula II to obtain a compound shown in formula III carrying out a condensation reaction on the compound shown in formula III and to obtain the compound shown in formula I. carrying out a condensation reaction on H-R 2 and R 5 N-Glu(OR 4 )-OR 3 , wherein R 3 is a carboxyl protecting group, R 4 is a carboxyl activating group, and R 5 is an amino protecting group, a compound shown in formula II is obtained; removing the carboxyl protecting group R 3 and the amino protecting group R 5 of the compound shown in formula II to obtain a compound shown in formula III carrying out a condensation reaction on the compound shown in formula III and to obtain the compound shown in formula I.
Isolated polypeptide derived from tropoelastine, wherein the amino acid sequence comprises, successively, from the N-terminus to the C-terminus of the polypeptide: • A domain consisting of at least 2 and at most 40 repeats of a unit consisting of: ∘ A hydrophobic region (A) consisting of successively at least 6 and at most 20 sequences X 1 GX 2 X 3 PG (SEQ ID N°1) wherein X 1 , X 2 and X 3 represent a hydrophobic amino acid independently selected from the group consisting of: alanine, valine, leucine and isoleucine; wherein the SEQ ID No. 1 is identical or different, and ∘ A region (B) comprising at least the sequence AAAKAAK (SEQ ID No. 2), • An hydrophobic domain (C) consisting of successively at least 6 and at most 20 sequences X 4 GX 5 X 6 PG (SEQ ID N°4) wherein X 4 , X 5 and X 6 are any hydrophobic amino acid independently selected from the group consisting of: alanine, valine, leucine and isoleucine; and wherein the SEQ ID No. 4 is identical or different, and • A domain (D) comprising at least two non-consecutive cysteine amino acids and the sequence RKRK (SEQ ID No. 5). • A domain consisting of at least 2 and at most 40 repeats of a unit consisting of: ∘ A hydrophobic region (A) consisting of successively at least 6 and at most 20 sequences X 1 GX 2 X 3 PG (SEQ ID N°1) wherein X 1 , X 2 and X 3 represent a hydrophobic amino acid independently selected from the group consisting of: alanine, valine, leucine and isoleucine; wherein the SEQ ID No. 1 is identical or different, and ∘ A region (B) comprising at least the sequence AAAKAAK (SEQ ID No. 2), ∘ A hydrophobic region (A) consisting of successively at least 6 and at most 20 sequences X 1 GX 2 X 3 PG (SEQ ID N°1) wherein X 1 , X 2 and X 3 represent a hydrophobic amino acid independently selected from the group consisting of: alanine, valine, leucine and isoleucine; wherein the SEQ ID No. 1 is identical or different, and ∘ A region (B) comprising at least the sequence AAAKAAK (SEQ ID No. 2), • An hydrophobic domain (C) consisting of successively at least 6 and at most 20 sequences X 4 GX 5 X 6 PG (SEQ ID N°4) wherein X 4 , X 5 and X 6 are any hydrophobic amino acid independently selected from the group consisting of: alanine, valine, leucine and isoleucine; and wherein the SEQ ID No. 4 is identical or different, and • A domain (D) comprising at least two non-consecutive cysteine amino acids and the sequence RKRK (SEQ ID No. 5).
Actuating device for selecting shift stages of a vehicle gearbox by means of shift-by-wire actuation, wherein the actuation device has a touch screen with at least one touch-sensitive display and touch field for displaying and selecting a selectable shift stage, characterized in that the touch screen has a touch-sensitive confirmation field which is adjacent to the at least one touch-sensitive display and touch field and has the purpose of confirming and of displaying the selected shift stage, wherein the touch-sensitive confirmation field is coupled to the display and touch field in such a way that brushing contact with the touch screen from the display and touch field as far as the confirmation field causes a displayed selectable shift stage to be selected and confirmed for the effective shifting adjustment of the change speed gearbox.
A resin composition for a back-surface layer, to be used for forming a back-surface layer of a heat-sensitive transfer recording material having a heat-sensitive transfer recording layer provided on one surface of a substrate sheet and a back-surface layer provided on the other surface, the resin composition comprising, as film-forming components: a siloxane-modified urethane- or urea-based resin A; a resin B; and a cross-linking agent C, wherein the resin A comprises a polysiloxane component in a range of 5 to 55% by mass, the resin B is at least any one selected from the group consisting of polyester polyols, polycarbonate polyols, polyether polyols, caprolactone polyols, polyvinyl acetals, polyvinyl butyral, epoxy polyols, and silicone polyols each having at least one active-hydrogen-containing group in one molecule and having a glass transition point (Tg) of lower than 100°C, and when the total amount of the resin A, resin B, and the cross-linking agent C is assumed to be 100% by mass, the resin A is contained within a range of 1 to 79% by mass, the resin B is contained within a range of 1 to 79% by mass, and the cross-linking agent C is contained within a range of 20 to 80% by mass. a siloxane-modified urethane- or urea-based resin A; a resin B; and a cross-linking agent C, wherein the resin A comprises a polysiloxane component in a range of 5 to 55% by mass, the resin B is at least any one selected from the group consisting of polyester polyols, polycarbonate polyols, polyether polyols, caprolactone polyols, polyvinyl acetals, polyvinyl butyral, epoxy polyols, and silicone polyols each having at least one active-hydrogen-containing group in one molecule and having a glass transition point (Tg) of lower than 100°C, and when the total amount of the resin A, resin B, and the cross-linking agent C is assumed to be 100% by mass, the resin A is contained within a range of 1 to 79% by mass, the resin B is contained within a range of 1 to 79% by mass, and the cross-linking agent C is contained within a range of 20 to 80% by mass.
System for the preparation of a food , comprising a monitoring device for monitoring the food during its preparation, a control device for the preparation of the food by means of a kitchen appliance and by means of an electronically stored recipe, and a mobile device and/or a non-mobile device , wherein the monitoring device is able to communicate with the control device and the mobile device and/or with the non-mobile device , wherein the mobile device and/or the non-mobile device is configured such that it is able to transmit information of the monitoring device to a user , characterized in that the control device is configured such that during the controlled preparation of a food it recognizes possible absence times for a user , by the control device evaluating processing steps of the recipe and thus recognizing when the presence of the user is not required for the preparation of the food , and informs the user about it.
Electronic locking unit comprising at least one knob having an identification function and being mounted on a guide shaft , wherein the guide shaft is arranged with a free end in an axially continuous cavity of a cylinder profile , and wherein, after successful identification, the guide shaft interacts with a locking mechanism of the locking unit and enables a door to be locked by a rotational movement of the at least one knob having the identification function, characterized in that an actuation element , which is movable relative to the guide shaft , and a coupling element are arranged in the guide shaft , in that the actuation element holds the coupling element in an initial position in which a portion of the coupling element protrudes in radial direction through an outlet in the guide shaft , and in that the portion of the coupling element protruding through the outlet is designed such that the portion interacts with notches , which are formed in an inner side of the locking mechanism of the locking unit , in such a way that, the portion engages in one of the notches and moves the locking mechanism with it, upon a rotational movement of the at least one knob having the identification function without prior identification in a locking direction, and in such a way that the portion does not engage in one of the notches , upon a rotational movement of the at least one knob having an identification function without prior identification in an unlocking direction.
Mobility analyzer comprising a first electrode and a second electrode , one of said electrodes being grounded and the other of said electrodes being connectable to a voltage source, the mobility analyzer further comprises an aerosol inlet and a sheath flow-inlet and sheath flow-outlet as well as at least one particle sample flow channel with a particle sample inlet and a particle sample outlet , wherein the first and the second electrodes are concentric, and the first and second electrodes define an annular channel for the aerosol, characterized in that the electrodes are embodied as an electrically conductive coating provided on a plastic material.
Air cleaning device with a) a plasma generator for treating the air to be cleaned with a plasma, in particular with an atmospheric pressure plasma, b) an adsorber for adsorbing impurities from the air and for forming a reaction surface, and c) a catalytic converter for the catalytic conversion of impurities in the air, d) wherein the adsorber and the catalytic converter are arranged at least partially downstream of the plasma generator , characterized e) in that the plasma generator has a number of electrodes for generating the plasma and generates a volume-related dielectric barrier discharge in the volume between the electrodes , and f) in that the adsorber and the catalytic converter are arranged at least partially between the electrodes of the plasma generator and partially downstream of the plasma generator . a) a plasma generator for treating the air to be cleaned with a plasma, in particular with an atmospheric pressure plasma, b) an adsorber for adsorbing impurities from the air and for forming a reaction surface, and c) a catalytic converter for the catalytic conversion of impurities in the air, d) wherein the adsorber and the catalytic converter are arranged at least partially downstream of the plasma generator , characterized e) in that the plasma generator has a number of electrodes for generating the plasma and generates a volume-related dielectric barrier discharge in the volume between the electrodes , and f) in that the adsorber and the catalytic converter are arranged at least partially between the electrodes of the plasma generator and partially downstream of the plasma generator .
A video encoding method for predicting pixel values of each target pixel in a block under a planar mode, the method comprising computer executable steps executed by a processor of a video encoder to implement: calculating a first prediction value of each target pixel using linear interpolation between pixel values of respective horizontal boundary pixels, in the same horizontal position as the respective target pixels, on the upper outside of the target block, and a value of the lowermost one of vertical boundary pixels neighboring the target block on left outside of the target block; calculating a second prediction value of each target pixel using linear between pixel values of the respective vertical boundary pixels, in the same vertical position as the respective target pixels, and a pixel value of the rightmost one of the horizontal boundary pixels neighboring the target block on the upper outside of the target block; averaging, for each target pixel, the first prediction value and the second value to derive a prediction pixel value for that pixel in a prediction block; and signaling an identification of the planar mode selected from among a plurality of different intra-prediction modes including a DC mode, directional modes and the planar mode. calculating a first prediction value of each target pixel using linear interpolation between pixel values of respective horizontal boundary pixels, in the same horizontal position as the respective target pixels, on the upper outside of the target block, and a value of the lowermost one of vertical boundary pixels neighboring the target block on left outside of the target block; calculating a second prediction value of each target pixel using linear between pixel values of the respective vertical boundary pixels, in the same vertical position as the respective target pixels, and a pixel value of the rightmost one of the horizontal boundary pixels neighboring the target block on the upper outside of the target block; averaging, for each target pixel, the first prediction value and the second value to derive a prediction pixel value for that pixel in a prediction block; and signaling an identification of the planar mode selected from among a plurality of different intra-prediction modes including a DC mode, directional modes and the planar mode.
Method for producing a microstructure component , wherein, in accordance with the method - a plurality of punctiform injection structures are inserted in a predetermined grid in a first substrate direction and a second substrate direction (S1, S2) standing at right angles thereto into a first surface of a wafer-like silicon substrate , - the injection structures are lengthened into drilled holes in the depth direction of the silicon substrate in a first etching step , - a second surface of the silicon substrate lying opposite the first surface is at least partly removed for rear-side opening of the drilled holes in a second etching step , - in a third etching step an etching medium effective anisotropically is poured alternately through the drilled holes from both surfaces of the silicon substrate , so that drilled holes arranged next to one another in the first substrate direction (S1) connect to form a column running in the first substrate direction (S1), wherein the injection structures in the second substrate direction (S2) are arranged at a first distance (A1) in relation to one another, wherein the injection structures are combined into groups in the first substrate direction (S1),which each comprise a subordinate number of the injection structures , and wherein the injection structures within the groups are arranged in relation to one another at a second distance (A2) reduced by a factor of 0.2-0.6, preferably of 0.3-0.5, compared to the first distance (A1) in the first substrate direction, characterised in that the groups in the first substrate direction (S1) are arranged following one another at a third distance (A3) enlarged in relation to the second distance (A1). - a plurality of punctiform injection structures are inserted in a predetermined grid in a first substrate direction and a second substrate direction (S1, S2) standing at right angles thereto into a first surface of a wafer-like silicon substrate , - the injection structures are lengthened into drilled holes in the depth direction of the silicon substrate in a first etching step , - a second surface of the silicon substrate lying opposite the first surface is at least partly removed for rear-side opening of the drilled holes in a second etching step , - in a third etching step an etching medium effective anisotropically is poured alternately through the drilled holes from both surfaces of the silicon substrate , so that drilled holes arranged next to one another in the first substrate direction (S1) connect to form a column running in the first substrate direction (S1),
A swirl ring for a plasma arc torch, the swirl ring comprising: a hollow body having a distal end and a proximal end and configured to receive at least a portion of an electrode within the hollow body, the proximal end configured to attach to a torch body of the plasma arc torch and the distal end configured to attach to a nozzle of the plasma arc torch, the hollow body defining a longitudinal axis extending from the proximal end to the distal end; characterised in that it further comprises a first set of flange segments circumferentially disposed on an interior surface of the hollow body, the first set of flange segments extending radially inward from the interior surface and shaped to retain a first surface of a sealing member; and a second set of flange segments circumferentially disposed on the interior surface of the hollow body, the second set of flange segments extending radially inward from the interior surface and shaped to retain a second surface of the sealing member, wherein the second set of flange segments are spaced distally from the first set of flange segments along the longitudinal axis, and flange segments of the second set of flange segments are radially offset from flange segments of the first set of flange segments. a hollow body having a distal end and a proximal end and configured to receive at least a portion of an electrode within the hollow body, the proximal end configured to attach to a torch body of the plasma arc torch and the distal end configured to attach to a nozzle of the plasma arc torch, the hollow body defining a longitudinal axis extending from the proximal end to the distal end; characterised in that it further comprises a first set of flange segments circumferentially disposed on an interior surface of the hollow body, the first set of flange segments extending radially inward from the interior surface and shaped to retain a first surface of a sealing member; and a second set of flange segments circumferentially disposed on the interior surface of the hollow body, the second set of flange segments extending radially inward from the interior surface and shaped to retain a second surface of the sealing member, wherein the second set of flange segments are spaced distally from the first set of flange segments along the longitudinal axis, and flange segments of the second set of flange segments are radially offset from flange segments of the first set of flange segments.