mhurhangee/ep-ind-claims huggingface dataset:
An air conditioning device (200, 200a, 200b) comprising: an indoor unit (1, 1, 1b); and an outdoor unit, wherein the indoor unit (1, 1a, 1b) comprises a lidar configured to measure a line-of sight direction wind speed; a wind measurement processing unit configured to calculate a wind direction value (Φ L, Θ L) indicating a wind direction (Φ, O) using a value measured by the lidar; and a blowing control unit configured to execute control of a blowing direction (Φ', O') using the wind direction value (Φ L, Θ L) calculated by the wind measurement processing unit. an indoor unit (1, 1, 1b); and an outdoor unit, wherein the indoor unit (1, 1a, 1b) comprises a lidar configured to measure a line-of sight direction wind speed; a wind measurement processing unit configured to calculate a wind direction value (Φ L, Θ L) indicating a wind direction (Φ, O) using a value measured by the lidar; and a blowing control unit configured to execute control of a blowing direction (Φ', O') using the wind direction value (Φ L, Θ L) calculated by the wind measurement processing unit.
A sound processing apparatus including: a head direction acquisition unit that acquires a head direction of a user listening to sound; a rotation matrix generation unit that selects two first rotation matrices for a rotation in a horizontal angle direction on a basis of the head direction from a common table, selects one second rotation matrix on a basis of the head direction from a plurality of second rotation matrices for rotation in an elevation angle direction, and generates a third rotation matrix on a basis of the selected two first rotation matrices and the selected one second rotation matrix; and a head-related transfer function composition unit to generate a headphone drive signal in a time-frequency domain composing an input signal in a spherical harmonic domain, a head-related transfer function in the spherical harmonic domain, and the third rotation matrix in the spherical harmonic domain; wherein the rotation matrix generation unit selects the second rotation matrix by determining that the rotation in the elevation angle direction is zero degrees in a case where an absolute value of the rotation of a head of a user in the elevation angle direction is equal to or smaller than a predetermined threshold. a head direction acquisition unit that acquires a head direction of a user listening to sound; a rotation matrix generation unit that selects two first rotation matrices for a rotation in a horizontal angle direction on a basis of the head direction from a common table,
A moisture-curable, graft-modified resin composition which comprises (i) at least one thermoplastic polymer, and (ii) at least one polymer possessing at least one hydrolyzable silyl group bonded thereto through a linking group containing at least one oxygen or nitrogen, wherein at least one silane (iii) is free-radically grafted to both polymers (i) and (ii) in the presence of a free radical-generating agent (iv) under reactive-mechanical conditions, wherein silane (iii), prior to being grafted, possesses at least one reactive carbon-carbon unsaturated bond. (i) at least one thermoplastic polymer, and (ii) at least one polymer possessing at least one hydrolyzable silyl group bonded thereto through a linking group containing at least one oxygen or nitrogen,
An RFID transponder device configured for responding to a request of an RFID reader device, by sending a response comprising the unique ID of the RFID transponder device, wherein the unique ID comprises information encoding a feature set (FTRS) of the RFID transponder device, wherein the information is encoded into a part of the unique ID corresponding with a tag identifier, wherein the information comprises known-feature bits for encoding known features (F1, F2, F3, F4) of the RFID transponder device, and wherein each bit is associated with one specific feature.
A method of carburizing a steel component having a composition of Fe-16.3Co-7.5Ni-3.5Cr-1.75Mo-0.2W-0.11C-0.03Ti-0.02V, the method comprising: generating a low pressure vacuum in a carburization furnace having the steel component therein, the low pressure vacuum being a sub-atmospheric pressure; heating the steel component in the carburization furnace to a carburization temperature in a range of 1000°C (1830°F) plus or minus 56°C (100°F) while in the low pressure vacuum; performing a boost cycle for one minute or less, to introduce carbon rich gas into the carburization furnace while the steel component is at the carburization temperature and in the low pressure vacuum; and after performing the boost cycle, performing a diffuse cycle for a minute or greater, by ceasing introduction of the carbon rich gas into the carburization furnace to allow for diffusion of the carbon into the steel component to occur and while the steel component is at the carburization temperature and in the low pressure vacuum, characterized in that the boost cycle and the diffuse cycle are repeated to achieve a carbon content at a surface of the steel component of between 0.40 wt. % and 0.55 wt. %. generating a low pressure vacuum in a carburization furnace having the steel component therein, the low pressure vacuum being a sub-atmospheric pressure; heating the steel component in the carburization furnace to a carburization temperature in a range of 1000°C (1830°F) plus or minus 56°C (100°F) while in the low pressure vacuum; performing a boost cycle for one minute or less, to introduce carbon rich gas into the carburization furnace while the steel component is at the carburization temperature and in the low pressure vacuum; and after performing the boost cycle, performing a diffuse cycle for a minute or greater, by ceasing introduction of the carbon rich gas into the carburization furnace to allow for diffusion of the carbon into the steel component to occur and while the steel component is at the carburization temperature and in the low pressure vacuum, characterized in that the boost cycle and the diffuse cycle are repeated to achieve a carbon content at a surface of the steel component of between 0.40 wt. % and 0.55 wt. %.
A process for the manufacture of hybrid products comprising at least two different elastomer materials bonded to each other, said at least two different elastomer materials being based on at least one rubber of the ethylene propylene diene monomer (EPDM) type and at least one rubber of the silicone type; wherein said at least one EPDM rubber material and said at least one silicone rubber material are covulcanized in contact with each other in the presence of a peroxide curing agent; and wherein said at least one silicone rubber comprises alkenyl functionalized polydialkylsiloxanes of the general formula: R 3 Si-[O-SiR 2] n -O-SiR 3; wherein R is selected from the group consisting of C 1 -C 8 alkyl and C 2 -C 8 alkenyl groups, and n is a natural number specifying the number of repeating units; characterised in that the hybrid product is manufactured directly by coextrusion of a curable composition comprising a suitable EPDM compound and a curable composition comprising a suitable alkenyl functionalized polydialkylsiloxane compound on a coextruder, followed by covulcanization. wherein said at least one EPDM rubber material and said at least one silicone rubber material are covulcanized in contact with each other in the presence of a peroxide curing agent; and wherein said at least one silicone rubber comprises alkenyl functionalized polydialkylsiloxanes of the general formula: R 3 Si-[O-SiR 2] n -O-SiR 3; wherein R is selected from the group consisting of C 1 -C 8 alkyl and C 2 -C 8 alkenyl groups, and n is a natural number specifying the number of repeating units; characterised in that the hybrid product is manufactured directly by coextrusion of a curable composition comprising a suitable EPDM compound and a curable composition comprising a suitable alkenyl functionalized polydialkylsiloxane compound on a coextruder, followed by covulcanization.
A pneumatic tire carcass having a radial direction and a circumferential direction, wherein the tire carcass comprises: (i) at least one ply of stabilizing fabric which - comprises a plurality of reinforcing yarns comprising monoaxially drawn tape elements having a rectangular cross-section, an upper surface, and a lower surface, wherein the tape elements comprise at least a first layer comprising a polymer selected from polyamide, polyester, co-polymers and mixtures thereof, and having a draw ratio of at least 5, a modulus of at least 2 GPa, and a density of at least 0.85 g/cm 3, and - is disposed within the carcass such that the reinforcing yarns are arranged in the radial direction of the carcass; and (ii) an air-blocking layer attached to the stabilizing fabric. (i) at least one ply of stabilizing fabric which - comprises a plurality of reinforcing yarns comprising monoaxially drawn tape elements having a rectangular cross-section, an upper surface, and a lower surface, wherein the tape elements comprise at least a first layer comprising a polymer selected from polyamide, polyester, co-polymers and mixtures thereof, and having a draw ratio of at least 5, a modulus of at least 2 GPa, and a density of at least 0.85 g/cm 3, and - is disposed within the carcass such that the reinforcing yarns are arranged in the radial direction of the carcass; and - comprises a plurality of reinforcing yarns comprising monoaxially drawn tape elements having a rectangular cross-section, an upper surface, and a lower surface, wherein the tape elements comprise at least a first layer comprising a polymer selected from polyamide, polyester, co-polymers and mixtures thereof, and having a draw ratio of at least 5, a modulus of at least 2 GPa, and a density of at least 0.85 g/cm 3, and - is disposed within the carcass such that the reinforcing yarns are arranged in the radial direction of the carcass; and (ii) an air-blocking layer attached to the stabilizing fabric.
A grazing incidence reflector (300, 400, 500, 600, 900) for extreme ultraviolet radiation, comprising: a first mirror layer (310, 510) configured to reflect at least partially EUV radiation incident on the reflector with grazing incidence angles in a first range, the first mirror layer (310, 510) being configured to transmit EUV radiation in a second range of incidence angles which overlaps and extends beyond the first range of incidence angles; and a multilayer mirror structure (320, 920) beneath the first mirror layer (310, 510) configured to reflect EUV radiation which is incident on the reflector with grazing incidence angles in said second range and which penetrates through the first mirror layer (310, 510).. a first mirror layer (310, 510) configured to reflect at least partially EUV radiation incident on the reflector with grazing incidence angles in a first range, the first mirror layer (310, 510) being configured to transmit EUV radiation in a second range of incidence angles which overlaps and extends beyond the first range of incidence angles; and a multilayer mirror structure (320, 920) beneath the first mirror layer (310, 510) configured to reflect EUV radiation which is incident on the reflector with grazing incidence angles in said second range and which penetrates through the first mirror layer (310, 510)..
A light applicator for examining and/or treating an organic body, wherein the light applicator has a minimally invasive insertion portion, which runs in an axial longitudinal direction and at its distal end has an LED, wherein at the distal end of the insertion portion there is arranged a needle tip, which runs at least in part distally from the LED, tapers distally and has a light-transparent scatter body for scattering the light of the LED, wherein a stabilising element at least partially surrounding circumferentially the distal end of the insertion portion and the needle tip is connected to the insertion portion and the needle tip, wherein the stabilising element comprises a material which is axially strained at least in the longitudinal direction.
A composition for providing a surface coating with a coefficient of friction of less than 0.1 on a substrate surface, wherein the composition comprises: (i) Particles; (ii) A lubricant; and (iii) A solvent, wherein the particles (i) are selected from one or more of silica particles, carbon particles, transition metal or transition metal oxide particles and aluminium based particles; the lubricant (ii) is selected from one or more of oils, silicone oils, vegetable oils, mineral oils, paraffin oils, choline phosphonium and sulphonium and the solvent (iii) is selected from one or more of propanol, ethanol, methanol, ethyl acetate, acetone, pentane, hexane, toluene, chloroform and dichloromethane. (i) Particles; (ii) A lubricant; and (iii) A solvent,
A method of preparing an antibody suitable for use in a canine comprising the steps of: - providing a donor antibody from a species other than a canine, wherein the donor antibody has binding specificity for a target antigen present in canines; - comparing each amino acid residue of the amino acid sequence of framework regions of the donor antibody with each amino acid residue present at a corresponding position in the amino acid sequence of framework regions of a plurality of canine antibodies to identify one or more amino acid residues within the amino acid sequence of the framework regions of the donor antibody that differ from one or more amino acid residues at the corresponding position within the amino acid sequence of framework regions of the plurality of canine antibodies; and - substituting the one or more identified amino acid residues in the donor antibody with the one or more amino acid residues present at the corresponding position in the plurality of canine antibodies to produce a modified antibody, wherein the modified antibody does not contain any amino acid in any position within the framework regions which would be foreign at the position in canines; wherein the modified antibody is capable of specifically binding to canine nerve growth factor and inhibiting the ability of canine NGF to bind to the p75 or TrkA canine NGF receptor; and wherein substitution of an amino acid residue in the donor antibody is undertaken using the principle of conservative substitution. - providing a donor antibody from a species other than a canine, wherein the donor antibody has binding specificity for a target antigen present in canines; - comparing each amino acid residue of the amino acid sequence of framework regions of the donor antibody with each amino acid residue present at a corresponding position in the amino acid sequence of framework regions of a plurality of canine antibodies to identify one or more amino acid residues within the amino acid sequence of the framework regions of the donor antibody that differ from one or more amino acid residues at the corresponding position within the amino acid sequence of framework regions of the plurality of canine antibodies; and - substituting the one or more identified amino acid residues in the donor antibody with the one or more amino acid residues present at the corresponding position in the plurality of canine antibodies to produce a modified antibody,
A process comprising: (a) contacting methacrylamide with methanol in an aqueous reaction medium in an esterification reaction zone in the presence of an acidic raw material to produce a first stream comprising methyl methacrylate, water, methanol, acidic raw material and methacrylic acid; (b) phase separating the first stream in a first phase separating apparatus into a first aqueous phase comprising the acidic raw material, and a first organic liquid product phase comprising methyl methacrylate, methanol and methacrylic acid; (c) taking a first organic stream from the first organic liquid product phase, and neutralizing the methacrylic acid of the first organic stream with ammonia to produce a neutralized stream comprising methyl methacrylate, methanol and ammonium methacrylate; (d) optionally adding water to the neutralized stream; (e) phase separating the neutralized stream in a second phase separating apparatus into an organic layer comprising methyl methacrylate and an aqueous layer comprising methanol and ammonium methacrylate, the layers having a common interface; (f) removing a polymer-removing stream from the phase separating apparatus at or below the height of the interface, and (g) removing from the second phase separating apparatus a second aqueous stream comprising a portion of the aqueous layer and from 1 to 500 ppm of a soluble polymer and wherein at least a portion of the second aqueous stream is recycled to the esterification reaction zone wherein the polymer-removing stream has a percentage of the total mass-flow of the second aqueous stream, and the relative percentage of the total mass-flow is from 0.1 to 7% of the percentage of the total mass-flow of the second aqueous stream.
A method for a supervision and control of connected objects registered in an IP Multimedia Subsystem, IMS, network, comprising the following steps in an application server: receiving a first message (CMes1) containing an identifier of a connected object from a supervision server, retrieving a SIP number of the connected object associated with the identifier of the connected object, characterized by the method further comprising the steps of: sending a second message (CMes2) containing the identifier of the connected object to a messaging server of the IMS network, the second message further containing instructions interpreted by the messaging server to send a control message (MesC) to an instant messaging client of the connected object using the SIP number of the connected object, the second message (CMes2) and the control message (MesC) containing a command that is executed by the connected object to trigger an action on at least one sensor of the connected object or the activation of a resource of the connected object, receiving an update message (MesU) from the connected object, the update message (MesU) containing at least one value of a sensor of the connected object or an acknowledgment of said activation of a resource. receiving a first message (CMes1) containing an identifier of a connected object from a supervision server, retrieving a SIP number of the connected object associated with the identifier of the connected object, characterized by the method further comprising the steps of: sending a second message (CMes2) containing the identifier of the connected object to a messaging server of the IMS network, the second message further containing instructions interpreted by the messaging server to send a control message (MesC) to an instant messaging client of the connected object using the SIP number of the connected object, the second message (CMes2) and the control message (MesC) containing a command that is executed by the connected object to trigger an action on at least one sensor of the connected object or the activation of a resource of the connected object, receiving an update message (MesU) from the connected object, the update message (MesU) containing at least one value of a sensor of the connected object or an acknowledgment of said activation of a resource. sending a second message (CMes2) containing the identifier of the connected object to a messaging server of the IMS network, the second message further containing instructions interpreted by the messaging server to send a control message (MesC) to an instant messaging client of the connected object using the SIP number of the connected object, the second message (CMes2) and the control message (MesC) containing a command that is executed by the connected object to trigger an action on at least one sensor of the connected object or the activation of a resource of the connected object, receiving an update message (MesU) from the connected object, the update message (MesU) containing at least one value of a sensor of the connected object or an acknowledgment of said activation of a resource.
A turbine engine comprising: a starter motor; a compressor assembly (14, 16) comprising a plurality of variable stator vanes; and a computing device coupled in communication with said starter motor and said plurality of variable stator vanes, said computing device configured to: actuate said starter motor of the turbine engine such that a motoring speed of the turbine engine increases; monitor a parameter of said turbine engine; and actuate said plurality of variable stator vanes such that said plurality of variable stator vanes are at least partially open to control, based on said parameter, the motoring speed of the turbine engine to mitigate thermal rotor bow in said turbine engine. a starter motor; a compressor assembly (14, 16) comprising a plurality of variable stator vanes; and a computing device coupled in communication with said starter motor and said plurality of variable stator vanes, said computing device configured to: actuate said starter motor of the turbine engine such that a motoring speed of the turbine engine increases; monitor a parameter of said turbine engine; and actuate said plurality of variable stator vanes such that said plurality of variable stator vanes are at least partially open to control, based on said parameter, the motoring speed of the turbine engine to mitigate thermal rotor bow in said turbine engine. actuate said starter motor of the turbine engine such that a motoring speed of the turbine engine increases; monitor a parameter of said turbine engine; and actuate said plurality of variable stator vanes such that said plurality of variable stator vanes are at least partially open to control, based on said parameter, the motoring speed of the turbine engine to mitigate thermal rotor bow in said turbine engine.