mhurhangee/patent-ind-claim-en huggingface dataset:
A binocular display including first and second display screens having similar native directionally sensitive contrast, the first and second display screens mounted within a viewing device having first and second eyeboxes within which the respective first and second display screens are visible to users, the first and second display screens having first and second viewing axes directed toward the first and second eyeboxes and exhibiting a direction of peak contrast that is inclined to the respective first and second viewing axes , the binocular display characterised by : the first display screen being rotated with respect to the second display screen to orient the peak contrasts of the first and second display screens in opposite directions with respect to the first and second viewing axes , reducing contrast variations apparent between the different eyes of the users over a range of interpupillary distances (D MIN - D MAX ).
A drum conveyor for an agricultural harvesting head comprising a laterally extending drum having a central rotational axis, a first end, and a second end, a first stub axle extending into the first end of the drum and supporting the drum for rotation; a first link member having a rear end that is supported on the first stub axle and having a front end offset forwardly (V) from the first stub axle ; a second stub axle extending into the second end of the drum and supporting the drum for rotation; a second link member having a rear end that is supported on the second stub axle and having a front end offset forward (V) from the second stub axle ; a third axle having a first end and a second end, wherein the third axle is supported at its first end on the front end of the first link member for free rotation with respect to the first link member , and wherein the third axle is supported at its second end on the front end of the second link member for free rotation with respect to the second link member , further comprising a plurality of fingers that are supported for free rotation on the third axle , characterized in that the friction between the plurality of fingers and the third axle drive the third axle in rotation at the same speed that the drum rotates when the drum is driven in rotation.
Process for producing a coating source for the physical vapour deposition of doped carbon layers, where the coating source comprises carbon as a matrix material in a proportion of at least 75 mol% and at least one dopant in a proportion in the range from 1 mol% to 25 mol%, wherein the dopant-containing particles are uniformly distributed in the microstructure of the carbon matrix and wherein the microstructure of the coating source has at least two different crystallographic phases and at least one phase comprising the dopant, wherein the coating source has a theoretical density of at least 80%, characterized in that this process comprises at least the following production steps: • production of a powder mixture composed of carbon-containing powder and dopant-containing powder • sintering of the powder mixture by means of sintering with direct passage of current or by means of hot pressing at temperatures of from 1300°C to 3000°C and a pressure of 5 MPa to 50 MPa • mechanical working of the sintered shaped body to give a coating source. • production of a powder mixture composed of carbon-containing powder and dopant-containing powder • sintering of the powder mixture by means of sintering with direct passage of current or by means of hot pressing at temperatures of from 1300°C to 3000°C and a pressure of 5 MPa to 50 MPa • mechanical working of the sintered shaped body to give a coating source.
A compound of formula (I): or a salt thereof, wherein: R 1 is H, (C 1 -C 6 )alkyl, or (C 1 -C 6 )alkanoyl; n is an integer in the range of from about 10 to about 150; and L is absent and X is -C(=O)NR 2 R 3 ; or L is (C 1 -C 6 )alkyl and X is selected from the group consisting of -N(R 4 )C(=O)CH(R 2 )(R 3 ), -OCH(R 2 )(R 3 ), -C(=O)OCH 2 CH(R 2 )(R 3 ), -N(R 4 )C(=O)N(R 2 )(R 3 ), and -SO 2 N(R 2 )(R 3 ); R 2 is (C 10 -C 20 )alkyl; R 3 is (C 10 -C 20 )alkyl; and R 4 is H or (C 1 -C 6 )alkyl. R 1 is H, (C 1 -C 6 )alkyl, or (C 1 -C 6 )alkanoyl; n is an integer in the range of from about 10 to about 150; and L is absent and X is -C(=O)NR 2 R 3 ; or L is (C 1 -C 6 )alkyl and X is selected from the group consisting of -N(R 4 )C(=O)CH(R 2 )(R 3 ), -OCH(R 2 )(R 3 ), -C(=O)OCH 2 CH(R 2 )(R 3 ), -N(R 4 )C(=O)N(R 2 )(R 3 ), and -SO 2 N(R 2 )(R 3 ); R 2 is (C 10 -C 20 )alkyl; R 3 is (C 10 -C 20 )alkyl; and R 4 is H or (C 1 -C 6 )alkyl.
A system (200; 500) for forming a composite component, comprising: a close mold tool (202; 502) defining a cavity (203; 503) that corresponds to a shape of the composite component and configured to receive a composite material (208; 508); a perforated release film (204; 504, 505) defining a plurality of openings (216; 516) and configured to be positioned on a surface of the composite material (208; 508) within the cavity (203; 503); and a breather (206; 506, 507) configured to be positioned on the perforated release film (204; 504, 505), to allow a vacuum to be applied to the composite material (208; 508) through the breather (206; 506, 507) and the plurality of openings (216; 516), and to allow pressurized fluid to be applied to the perforated release film (204; 504) through the breather (206; 506, 507). a close mold tool (202; 502) defining a cavity (203; 503) that corresponds to a shape of the composite component and configured to receive a composite material (208; 508); a perforated release film (204; 504, 505) defining a plurality of openings (216; 516) and configured to be positioned on a surface of the composite material (208; 508) within the cavity (203; 503); and a breather (206; 506, 507) configured to be positioned on the perforated release film (204; 504, 505), to allow a vacuum to be applied to the composite material (208; 508) through the breather (206; 506, 507) and the plurality of openings (216; 516), and to allow pressurized fluid to be applied to the perforated release film (204; 504) through the breather (206; 506, 507).
A windshield wiper system, WWS, comprising: a wiper blade comprising a tip ; a motor assembly configured to drive the wiper blade in a sweep pattern across a windshield ; a control system configured to control the driving of the wiper blade by the motor assembly in accordance with positions of the tin of the wiper blade; wherein the control system comprises an electronic control unit, ECU , comprising control logic ; and a motor drive unit , which is receptive of an output from the control logic and configured to command operations of the motor assembly in accordance with the output; characterized in that the control system further comprises a transmitter disposed in the tip of the wiper blade; and first and second sensors disposed proximate to first and second angle limits of the sweep pattern, respectively, whereby the first and second sensors are provided to receive signals created by the transmitter . a wiper blade comprising a tip ; a motor assembly configured to drive the wiper blade in a sweep pattern across a windshield ; a control system configured to control the driving of the wiper blade by the motor assembly in accordance with positions of the tin of the wiper blade; wherein the control system comprises an electronic control unit, ECU , comprising control logic ; and a motor drive unit , which is receptive of an output from the control logic and configured to command operations of the motor assembly in accordance with the output; characterized in that the control system further comprises a transmitter disposed in the tip of the wiper blade; and first and second sensors disposed proximate to first and second angle limits of the sweep pattern, respectively, whereby the first and second sensors are provided to receive signals created by the transmitter .
A compound or pharmaceutically acceptable salts thereof, the structural formula of the compound being shown in Formula I: wherein, R 1 is selected from H, methyl, ethyl, n-propyl, isopropyl; R 2 is selected from substituted or unsubstituted heterocycloalkyl, or, R 1 and R 2 form groups as shown below with a nitrogen atom: wherein, Ra is selected from linear or branched C1-C3 alkyl; Rb is selected from amino; linear or branched, substituted or unsubstituted C1-C3 alkyl, and the substituent is selected from amino. R 1 is selected from H, methyl, ethyl, n-propyl, isopropyl; R 2 is selected from substituted or unsubstituted heterocycloalkyl, or, R 1 and R 2 form groups as shown below with a nitrogen atom: wherein, Ra is selected from linear or branched C1-C3 alkyl; Rb is selected from amino; linear or branched, substituted or unsubstituted C1-C3 alkyl, and the substituent is selected from amino.
An isolated bispecific antibody comprising a first arm that comprises a first amino acid sequence that binds CD47 and a second arm that comprises a second amino acid sequence that binds CD19, wherein the bispecific antibody inhibits interaction between CD47 and signal-regulatory protein alpha (SIRPα).
A method for generating an acoustic signal for localization of a point of interest comprising : accessing a geographic location associated with a point of interest ; selecting an audio waveform associated with the point of interest ; determining a geographic location of a vehicle ; deriving an orientation of the geographic location associated with the point of interest relative to the vehicle based on the geographic location associated with the point of interest and the determined geographic location of the vehicle ; and producing an acoustic signal including the audio waveform in two or more audio transducers by panning and fading the audio waveform such that a human listener inside the vehicle perceives the produced acoustic signal to be spatially indicative of the derived orientation of the geographic location associated with the point of interest relative to the vehicle ; characterized by determining whether to mute, play softly or enhance the selected audio waveform associated with the point of interest based on a state of the driver and/or a state of the vehicle. accessing a geographic location associated with a point of interest ; selecting an audio waveform associated with the point of interest ; determining a geographic location of a vehicle ; deriving an orientation of the geographic location associated with the point of interest relative to the vehicle based on the geographic location associated with the point of interest and the determined geographic location of the vehicle ; and producing an acoustic signal including the audio waveform in two or more audio transducers by panning and fading the audio waveform such that a human listener inside the vehicle perceives the produced acoustic signal to be spatially indicative of the derived orientation of the geographic location associated with the point of interest relative to the vehicle ; characterized by determining whether to mute, play softly or enhance the selected audio waveform associated with the point of interest based on a state of the driver and/or a state of the vehicle.
Coating compositions comprising at least one aminoplast crosslinker resin A, binder resins B that have active hydrogen functionality, and a catalyst composition C, wherein the catalyst composition C is a mixture of an organic sulfonic acid C1, and an amine C2 which may be primary, secondary, or tertiary, which must have a pKa value of not more than 10, and preferably not less than 4 and which is selected from the group consisting of : 4-chloroaniline, p-ethylaniline, 4-picoline, 2,6-lutidine, and 2,4,6-collidine, N-ethyl aniline, ethanolamine, N-methylethanolamine, and 2-methyl-2-aminoethanol and wherein the at least one aminoplast crosslinker resin A comprises at least one at least partially etherified reaction product of melamine and formaldehyde wherein the ratio of the amount of substance n(CH 2 O) of combined formaldehyde to the amount of substance n(Mel) of melamine is in the range of from 4.5 mol/mol to 6.2 mol/mol, the ratio of the amount of substance n(RO) of alkyl ether groups in the aminoplast crosslinker resin A to the amount of substance n(Mel) of melamine is in the range of from 4 mol/mol to 6.0 mol/mol, and the mass fraction of chemical entities having exactly one triazine ring in its molecule is in the range of from 30 % to 65 %, calculated as the ratio of the mass m of said chemical entities to the mass m(A) of the aminoplast crosslinker resin A, excluding solvents, additives, and catalysts, wherein the amount of substance n(CH 2 O) of combined formaldehyde is any methylene group derived from formaldehyde directly or indirectly bound to melamine, as one of the following groups: - an oligoacetal of formula >N-CH 2 -[O-CH 2 ] n -O-H, having n+1 molecules of formaldehyde, - an alkoxyoligoacetal of formula >N-CH 2 -[O-CH 2 ] n -OR, having n+1 molecules of formaldehyde, - an alkoxymethyl of formula >N-CH 2 -OR, having 1 molecule of formaldehyde, - a methylene ether bridge of formula >N-CH 2 -O-CH 2 -N<, having 2 molecules of formaldehyde, - a methylene bridge of formula >N -CH 2 - N<, having 1 molecule of formaldehyde, and - a N-methylol group >N-CH 2 OH, having 1 molecule of formaldehyde. - an oligoacetal of formula >N-CH 2 -[O-CH 2 ] n -O-H, having n+1 molecules of formaldehyde, - an alkoxyoligoacetal of formula >N-CH 2 -[O-CH 2 ] n -OR, having n+1 molecules of formaldehyde, - an alkoxymethyl of formula >N-CH 2 -OR, having 1 molecule of formaldehyde, - a methylene ether bridge of formula >N-CH 2 -O-CH 2 -N<, having 2 molecules of formaldehyde, - a methylene bridge of formula >N -CH 2 - N<, having 1 molecule of formaldehyde, and - a N-methylol group >N-CH 2 OH, having 1 molecule of formaldehyde.
An antenna arrangement, comprising: a support plane (105; 205; 305); a first antenna element (110; 210; 310) comprising a first end having an elongated shape along a first axis and a second end opposite the first end, the first antenna element coupled with the second end to the support plane (105; 205; 305) via a first connection (134; 144; 234) ; a second antenna element (120; 220; 320) comprising a first end having an elongated shape along a first axis and a second end opposite the first end, the second antenna element coupled with the second end to the support plane (105; 205; 305) via a second connection (144; 134; 244); a first coupler (112; 212) having an elongated shape along a second axis substantially perpendicular to the first axis of the first antenna element (110; 210; 310), the first coupler being configured to couple to the first antenna element (110; 210; 310) via the first end of the first antenna element; and a second coupler (122; 222) having an elongated shape along a second axis substantially perpendicular to the first axis of the second antenna element (120; 220; 320), the second coupler being configured to couple to the second antenna element (120; 220; 320) via the first end of the second antenna element (120; 220; 320), characterized in that the first and the second antenna elements at least partially overlap when viewed in a direction perpendicular to the support plane (105; 205; 305). a support plane (105; 205; 305); a first antenna element (110; 210; 310) comprising a first end having an elongated shape along a first axis and a second end opposite the first end, the first antenna element coupled with the second end to the support plane (105; 205; 305) via a first connection (134; 144; 234) ; a second antenna element (120; 220; 320) comprising a first end having an elongated shape along a first axis and a second end opposite the first end, the second antenna element coupled with the second end to the support plane (105; 205; 305) via a second connection (144; 134; 244); a first coupler (112; 212) having an elongated shape along a second axis substantially perpendicular to the first axis of the first antenna element (110; 210; 310), the first coupler being configured to couple to the first antenna element (110; 210; 310) via the first end of the first antenna element; and a second coupler (122; 222) having an elongated shape along a second axis substantially perpendicular to the first axis of the second antenna element (120; 220; 320), the second coupler being configured to couple to the second antenna element (120; 220; 320) via the first end of the second antenna element (120; 220; 320), characterized in that the first and the second antenna elements at least partially overlap when viewed in a direction perpendicular to the support plane (105; 205; 305).
A method performed by a wireless device , the method comprising: receiving , on a Physical Downlink Control Channel, PDCCH, a downlink-, DL, -related Downlink Control Information, DCI, message including: - a Physical Uplink Control Channel, PUCCH, resource indicator indicating a Hybrid Automatic Repeat Request Acknowledgement, HARQ-ACK, resource for the scheduled PDSCH transmission and - both of a DL grant to schedule a Physical Downlink Shared Channel, PDSCH, transmission and a Channel State Information, CSI, request; determining to trigger a CSI report in accordance with the CSI request in the DL-related DCI message; determining a PUCCH resource for the triggered CSI report in accordance with a value of the PUCCH resource indicator in the DL-related DCI message; and transmitting , depending on the value of the PUCCH resource indicator, the CSI report: - multiplexed with a HARQ-ACK on the determined PUCCH resource according to first values of the value of the PUCCH resource indicator, and - on the determined PUCCH resource and a HARQ-ACK on a different PUCCH resource according to second values of the value of the PUCCH resource indicator, wherein the PUCCH resource indicator indicates a time and frequency resource. receiving , on a Physical Downlink Control Channel, PDCCH, a downlink-, DL, -related Downlink Control Information, DCI, message including: - a Physical Uplink Control Channel, PUCCH, resource indicator indicating a Hybrid Automatic Repeat Request Acknowledgement, HARQ-ACK, resource for the scheduled PDSCH transmission and - both of a DL grant to schedule a Physical Downlink Shared Channel, PDSCH, transmission and a Channel State Information, CSI, request; - a Physical Uplink Control Channel, PUCCH, resource indicator indicating a Hybrid Automatic Repeat Request Acknowledgement, HARQ-ACK, resource for the scheduled PDSCH transmission and - both of a DL grant to schedule a Physical Downlink Shared Channel, PDSCH, transmission and a Channel State Information, CSI, request; determining to trigger a CSI report in accordance with the CSI request in the DL-related DCI message; determining a PUCCH resource for the triggered CSI report in accordance with a value of the PUCCH resource indicator in the DL-related DCI message; and transmitting , depending on the value of the PUCCH resource indicator, the CSI report: - multiplexed with a HARQ-ACK on the determined PUCCH resource according to first values of the value of the PUCCH resource indicator, and - on the determined PUCCH resource and a HARQ-ACK on a different PUCCH resource according to second values of the value of the PUCCH resource indicator, - multiplexed with a HARQ-ACK on the determined PUCCH resource according to first values of the value of the PUCCH resource indicator, and - on the determined PUCCH resource and a HARQ-ACK on a different PUCCH resource according to second values of the value of the PUCCH resource indicator, wherein the PUCCH resource indicator indicates a time and frequency resource.
Method for heat-treating a metallic component , having at least the following steps of: a) heating the component in a first furnace , b) moving the component into a temperature-control station , c) convectively cooling of at least one first subregion of the component in the temperature-control station by means of at least one nozzle , which discharges a fluid flow towards the first subregion , wherein a temperature difference is set between the at least one first subregion and at least one second subregion of the component , and wherein the at least one nozzle is operated with an overpressure of at least 2 bar, and wherein thermal energy is introduced into the at least one second subregion of the component in the temperature-control station at the same time as or at least partially in parallel with the cooling of the at least one first subregion of the component , wherein, in step a), the component is heated to a temperature below the AC3 temperature. a) heating the component in a first furnace , b) moving the component into a temperature-control station , c) convectively cooling of at least one first subregion of the component in the temperature-control station by means of at least one nozzle , which discharges a fluid flow towards the first subregion , wherein a temperature difference is set between the at least one first subregion and at least one second subregion of the component , and wherein the at least one nozzle is operated with an overpressure of at least 2 bar, and wherein thermal energy is introduced into the at least one second subregion of the component in the temperature-control station at the same time as or at least partially in parallel with the cooling of the at least one first subregion of the component ,
A method of wireless communication, comprising: determining a transmission power priority for an access channel relative to a second channel, wherein the access channel is a physical random access channel, PRACH; and transmitting the access channel and the second channel on at least one component carrier of a plurality of component carriers simultaneously, each of the access channel and the second channel being transmitted at a transmission power determined based on the priority, wherein the plurality of component carriers includes a primary component carrier and at least one secondary component carrier; and wherein the determining the transmission power priority includes assigning the PRACH a first priority and the second channel a second priority when the PRACH indicates an uplink scheduling request on the primary component carrier and the second channel carries sounding reference signals, SRS, on the primary component carrier or on a secondary component carrier of the at least one secondary component carrier; and reducing the transmission power for transmitting the PRACH during one orthogonal frequency division multiplexing (OFDM) symbol in which the second channel is transmitted; and further including: allocating a requisite transmission power to the channel with a higher priority; and allocating a remaining transmission power to the channel with a lower priority. determining a transmission power priority for an access channel relative to a second channel, wherein the access channel is a physical random access channel, PRACH; and transmitting the access channel and the second channel on at least one component carrier of a plurality of component carriers simultaneously, each of the access channel and the second channel being transmitted at a transmission power determined based on the priority, wherein the plurality of component carriers includes a primary component carrier and at least one secondary component carrier; and wherein the determining the transmission power priority includes assigning the PRACH a first priority and the second channel a second priority when the PRACH indicates an uplink scheduling request on the primary component carrier and the second channel carries sounding reference signals, SRS, on the primary component carrier or on a secondary component carrier of the at least one secondary component carrier; and reducing the transmission power for transmitting the PRACH during one orthogonal frequency division multiplexing (OFDM) symbol in which the second channel is transmitted; and further including: allocating a requisite transmission power to the channel with a higher priority; and allocating a remaining transmission power to the channel with a lower priority. allocating a requisite transmission power to the channel with a higher priority; and allocating a remaining transmission power to the channel with a lower priority.