mhurhangee/patent-ind-claim-en huggingface dataset:
An exhaust pipe for exhaust gas of an internal combustion engine of a vehicle, said vehicle having a bottom, said exhaust pipe having an exhaust gas passage for passing exhaust gas, said exhaust pipe having a circular inlet opening , in use, capable of being in exhaust receiving communication with an exhaust system of the vehicle; an outlet opening for discharging exhaust gas into the surroundings external to the vehicle, and a curved exhaust pipe section positioned between the circular inlet opening and the outlet opening , wherein an inner surface of a first annular portion of the curved exhaust pipe section gradually changes from a convex circular section to an indented concavely curved section in a direction from the inlet opening towards the outlet opening , for - in use - creating turbulence or a vortex in the exhaust gas flowing through the curved exhaust pipe section of the exhaust gas passage , wherein the curved exhaust pipe section comprises a curved inside pipe section and a curved outside pipe section , the curved inside pipe section having a smaller radius of curvature than the curved outside pipe section , characterized in that the first annular portion of the curved exhaust pipe section of which the inner surface gradually changes from a convex circular section to an indented concavely curved section in a direction from the inlet opening towards the outlet opening is positioned on the curved inside pipe section .
An automated system for separating one or more components in a biological fluid sample comprising: (a) an aspirator having a plurality of heads; (b) a pipette tip adapted to engage with a head of the aspirator wherein said pipette tip comprises two opposing ends, at least one of which is sealable; (c) a seal for sealing the sealable end of the pipette tip to provide a sealed pipette tip; and (d) a centrifuge configured to receive said sealed pipette tip to effect said separating of one or more components in a biological fluid; wherein the aspirator is configured to insert and remove the sealed pipette tip into and from the centrifuge. (a) an aspirator having a plurality of heads; (b) a pipette tip adapted to engage with a head of the aspirator wherein said pipette tip comprises two opposing ends, at least one of which is sealable; (c) a seal for sealing the sealable end of the pipette tip to provide a sealed pipette tip; and (d) a centrifuge configured to receive said sealed pipette tip to effect said separating of one or more components in a biological fluid;
Suction head for suctioning a liquid containing organic components, comprising - an inner surface defining a main channel of the suction head , the main channel extending along a main axis of the suction head towards a suction connection of the suction head , and - suction holes entering into the suction head and feeding through the inner surface into the main channel , wherein flow-guiding devices of the suction head are configured such that the flow-guiding devices impart a rotational component about the main axis to a flow of the liquid through the main channel , the flow being brought about by a negative pressure in the suction connection , and the liquid entering through the suction holes , characterized in that the suction connection comprises an inner partial connection connecting to the main channel on the main axis , and an outer partial connection feeding through the inner surface into the main channel at a distance to the main axis . - an inner surface defining a main channel of the suction head , the main channel extending along a main axis of the suction head towards a suction connection of the suction head , and - suction holes entering into the suction head and feeding through the inner surface into the main channel , wherein flow-guiding devices of the suction head are configured such that the flow-guiding devices impart a rotational component about the main axis to a flow of the liquid through the main channel , the flow being brought about by a negative pressure in the suction connection , and the liquid entering through the suction holes , characterized in that the suction connection comprises an inner partial connection connecting to the main channel on the main axis , and an outer partial connection feeding through the inner surface into the main channel at a distance to the main axis .
A reception apparatus comprising: a first acquisition unit configured to acquire binary format first signaling data transmitted in a first protocol layer of an internet protocol, IP, transmission system, the first signaling data including information indicating a location of text format second signaling data in a broadcast wave; a second acquisition unit configured to acquire the second signaling data from the broadcast wave on the basis of the information included in the first signaling data, the second signaling data being transmitted in a second protocol layer of the IP transmission system, and the first protocol layer being lower than the second protocol layer in a hierarchy of the protocol of the IP transmission system; wherein the second signaling data includes control information independent of a service identified by an IP address, wherein the second signaling data is transmitted for every physical channel in the broadcast wave; and wherein a physical channel supporting the broadcast wave transmits a plurality of base band packet, BBP, streams and a fast information channel, FIC, each BBP stream being assigned a BBP stream ID, whereby a FIC level element comprises a flag indicating that text format second signaling data is available in one of the plurality of BBP streams and further comprises an identifier indicating the BBP stream where the text format second signaling data is transmitted; and a control unit configured to control an operation of the first and second units.. a first acquisition unit configured to acquire binary format first signaling data transmitted in a first protocol layer of an internet protocol, IP, transmission system, the first signaling data including information indicating a location of text format second signaling data in a broadcast wave; a second acquisition unit configured to acquire the second signaling data from the broadcast wave on the basis of the information included in the first signaling data, the second signaling data being transmitted in a second protocol layer of the IP transmission system, and the first protocol layer being lower than the second protocol layer in a hierarchy of the protocol of the IP transmission system; wherein the second signaling data includes control information independent of a service identified by an IP address, wherein the second signaling data is transmitted for every physical channel in the broadcast wave; and wherein a physical channel supporting the broadcast wave transmits a plurality of base band packet, BBP, streams and a fast information channel, FIC, each BBP stream being assigned a BBP stream ID, whereby a FIC level element comprises a flag indicating that text format second signaling data is available in one of the plurality of BBP streams and further comprises an identifier indicating the BBP stream where the text format second signaling data is transmitted; and a control unit configured to control an operation of the first and second units..
Switching arrangement for medium voltage, having a load-break switch with three switch positions for ON , OFF and EARTHING , wherein the switch position ON switches a medium-voltage connection to an output line via a safety device , and an earthing switch arranged downstream of the safety device for earthing the output line , wherein the earthing switch is connected to the load-break switch via a mechanical coupling device (25, 31-37, 50-63), characterized in that the earthing switch is mechanically uncoupled in the event of a switching operation of the load-break switch from OFF to ON , so that a switching contact of the earthing switch reaches only two contact positions (earthed/non-earthed), and in that the coupling device (25, 31-37, 50-63) has a driver which is connected in a rotationally fixed manner to a drive axle and has a first driving means , wherein the first driving means is designed, in the event of a switching operation of the load-break switch from OFF to EARTHING , to engage with a second driving means and to convert an axial rotational movement into a translational lifting movement and, in the event of a switching operation of the load-break switch from OFF to ON , to miss the second driving means . the switch position ON switches a medium-voltage connection to an output line via a safety device , and an earthing switch arranged downstream of the safety device for earthing the output line , wherein the earthing switch is connected to the load-break switch via a mechanical coupling device (25, 31-37, 50-63), characterized in that the earthing switch is mechanically uncoupled in the event of a switching operation of the load-break switch from OFF to ON , so that a switching contact of the earthing switch reaches only two contact positions (earthed/non-earthed), and in that the coupling device (25, 31-37, 50-63) has a driver which is connected in a rotationally fixed manner to a drive axle and has a first driving means , wherein the first driving means is designed, in the event of a switching operation of the load-break switch from OFF to EARTHING , to engage with a second driving means and to convert an axial rotational movement into a translational lifting movement and, in the event of a switching operation of the load-break switch from OFF to ON , to miss the second driving means .
A low-level light therapy system , comprising: an article of apparel that absorbs an incident spectrum including one or more of a UV wavelength, a visible wavelength, and a near infrared wavelength and emits light having an emission spectrum including one or more of visible light radiation and near infrared radiation, wherein the article of apparel is electrically passive, wherein the light having an emission spectrum including one or more of visible light radiation and near infrared radiation is emitted from the article of apparel in a direction toward a mammalian body wearing the article of apparel , and wherein the emission spectrum includes one or more of a first peak between 700 nm and 800 nm with a full width at half maximum (FWHM) of 100 nm to 150 nm and a second peak between 800 nm and 900 nm with a full width at half maximum (FWHM) of 100 nm to 150 nm, characterized in that the article of apparel , comprises: a textile material including a network of yarns , wherein the yarns include one or more of a textured yarn and a staple yarn; wherein each yarn in the network of yarns includes a textile grade, polymeric host material and 0.01 wt.% to 1.0 wt.% of one or more fluorescent components , wherein the fluorescent component having an emission spectrum including visible light radiation has a quantum efficiency of 90% and above, and wherein the fluorescent component having an emission spectrum in the near infrared range has a quantum efficiency of 50% and above. wherein the article of apparel is electrically passive, wherein the light having an emission spectrum including one or more of visible light radiation and near infrared radiation is emitted from the article of apparel in a direction toward a mammalian body wearing the article of apparel , and wherein the emission spectrum includes one or more of a first peak between 700 nm and 800 nm with a full width at half maximum (FWHM) of 100 nm to 150 nm and a second peak between 800 nm and 900 nm with a full width at half maximum (FWHM) of 100 nm to 150 nm, characterized in that the article of apparel , comprises: a textile material including a network of yarns , wherein the yarns include one or more of a textured yarn and a staple yarn; wherein each yarn in the network of yarns includes a textile grade, polymeric host material and 0.01 wt.% to 1.0 wt.% of one or more fluorescent components , wherein the fluorescent component having an emission spectrum including visible light radiation has a quantum efficiency of 90% and above, and wherein the fluorescent component having an emission spectrum in the near infrared range has a quantum efficiency of 50% and above.
A method for exhausting gas from a coating material, in which method, the coating material is fed in the bottom part area of a drum rotating around an essentially vertical axis inside a vacuum tank , whereby the rotating motion of the drum causes the coating material to rise up the inner wall of the drum and to discharge from the upper edge of the drum as a thin film against the inner wall of a vacuum tank , wherefrom the coating material flows downwards, characterised in that in the method, the coating material is arranged to rise up the wall of the drum stepwise, so that the coating material will form a thin veil-like film on at least two different step levels , whereupon the gas bubbles in the coating material will break and/or discharge from the coating material to be then conducted out of the tank, in that an absolute pressure of about 1 kPa - 15 kPa is provided in the vacuum tank , and in that after gas exhaustion, the coating material is conducted from the vacuum tank to a curtain coater.
Interface plate of a bumper reinforcement (1; 1') for motor vehicles intended to allow the fixing of such bumper reinforcement (1; 1') on the body structure of the vehicle, said interface plate containing: - a rectangular plate having a plurality of holes capable of fastening to a corresponding interface element of the vehicle body structure by bolting, and - a pre-maintenance device which is attached to the said plate and which is intended to be inserted into a corresponding reception window in the said interface element so as to ensure a pre-maintenance of the said bumper reinforcement ; 1') before it is fastened by bolting on the said body structure; those fixing holes being arranged symmetrically between two and two opposite the center vertical axis (A M ) of the said plate , and the said pre-maintenance device being capable of lifting one face or/and the other of the said plate on a transverse longitudinal axis separated from a predefined offset (d) in relation to the said median vertical axis (A M ), characterized by the said pre-maintenance organ being a pawn crossing the said plate following a longitudinal axis offset horizontally in accordance with the said predefined offset in relation to the said median vertical axis, so as to protrude on both sides of that plate. said interface plate containing: - a rectangular plate having a plurality of holes capable of fastening to a corresponding interface element of the vehicle body structure by bolting, and - a pre-maintenance device which is attached to the said plate and which is intended to be inserted into a corresponding reception window in the said interface element so as to ensure a pre-maintenance of the said bumper reinforcement ; 1') before it is fastened by bolting on the said body structure; - a rectangular plate having a plurality of holes capable of fastening to a corresponding interface element of the vehicle body structure by bolting, and - a pre-maintenance device which is attached to the said plate and which is intended to be inserted into a corresponding reception window in the said interface element so as to ensure a pre-maintenance of the said bumper reinforcement ; 1') before it is fastened by bolting on the said body structure; those fixing holes being arranged symmetrically between two and two opposite the center vertical axis (A M ) of the said plate , and the said pre-maintenance device being capable of lifting one face or/and the other of the said plate on a transverse longitudinal axis separated from a predefined offset (d) in relation to the said median vertical axis (A M ), characterized by the said pre-maintenance organ being a pawn crossing the said plate following a longitudinal axis offset horizontally in accordance with the said predefined offset in relation to the said median vertical axis, so as to protrude on both sides of that plate.
An aqueous pharmaceutical composition consisting of: (A) (i) 50 mg/mL adalimumab, (ii) 10 mM histidine buffer, (iii) 120 mM glycine, (iv) 120 mM arginine, and (v) 0.1 wt% polysorbate 80; (B) (i) 50 mg/mL adalimumab, (ii) 10 mM histidine buffer, (iii) 120 mM glycine, (iv) 120 mM arginine, and (v) 0.05 wt% polysorbate 80; (C) (i) 50 mg/mL adalimumab, (ii) 10 mM histidine buffer, (iii) 120 mM glycine, (iv) 120 mM arginine, and (v) 0.01 wt% polysorbate 80; (D) (i) 50 mg/mL adalimumab, (ii) 10 mM histidine buffer, (iii) 120 mM glycine, (iv) 120 mM arginine, and (v) 0.05 wt% polysorbate 20; (E) (i) 50 mg/mL adalimumab, (ii) 10 mM histidine buffer, (iii) 120 mM glycine, (iv) 120 mM arginine, and (v) 0.1 wt% pluronic F-68; (F) (i) 50 mg/mL adalimumab, (ii) 20 mM histidine buffer, (iii) 150 mM glycine, (iv) 100 mM arginine, and (v) 0.01 wt% polysorbate 80; or (G) (i) 50 mg/mL adalimumab, (ii) 20 mM histidine buffer, (iii) 120 mM glycine, (iv) 120 mM arginine, and (v) 0.01 wt% polysorbate 20; wherein each of (A)-(G) has a pH of 5.2. (A) (i) 50 mg/mL adalimumab, (ii) 10 mM histidine buffer, (iii) 120 mM glycine, (iv) 120 mM arginine, and (v) 0.1 wt% polysorbate 80; (i) 50 mg/mL adalimumab, (ii) 10 mM histidine buffer, (iii) 120 mM glycine, (iv) 120 mM arginine, and (v) 0.1 wt% polysorbate 80; (B) (i) 50 mg/mL adalimumab, (ii) 10 mM histidine buffer, (iii) 120 mM glycine, (iv) 120 mM arginine, and (v) 0.05 wt% polysorbate 80; (i) 50 mg/mL adalimumab, (ii) 10 mM histidine buffer, (iii) 120 mM glycine, (iv) 120 mM arginine, and (v) 0.05 wt% polysorbate 80; (C) (i) 50 mg/mL adalimumab, (ii) 10 mM histidine buffer, (iii) 120 mM glycine, (iv) 120 mM arginine, and (v) 0.01 wt% polysorbate 80; (i) 50 mg/mL adalimumab, (ii) 10 mM histidine buffer, (iii) 120 mM glycine, (iv) 120 mM arginine, and (v) 0.01 wt% polysorbate 80; (D) (i) 50 mg/mL adalimumab, (ii) 10 mM histidine buffer, (iii) 120 mM glycine, (iv) 120 mM arginine, and (v) 0.05 wt% polysorbate 20; (i) 50 mg/mL adalimumab, (ii) 10 mM histidine buffer, (iii) 120 mM glycine, (iv) 120 mM arginine, and (v) 0.05 wt% polysorbate 20; (E) (i) 50 mg/mL adalimumab, (ii) 10 mM histidine buffer, (iii) 120 mM glycine, (iv) 120 mM arginine, and (v) 0.1 wt% pluronic F-68; (i) 50 mg/mL adalimumab, (ii) 10 mM histidine buffer, (iii) 120 mM glycine, (iv) 120 mM arginine, and (v) 0.1 wt% pluronic F-68; (F) (i) 50 mg/mL adalimumab, (ii) 20 mM histidine buffer, (iii) 150 mM glycine, (iv) 100 mM arginine, and (v) 0.01 wt% polysorbate 80; or (i) 50 mg/mL adalimumab, (ii) 20 mM histidine buffer, (iii) 150 mM glycine, (iv) 100 mM arginine, and (v) 0.01 wt% polysorbate 80; or (G) (i) 50 mg/mL adalimumab, (ii) 20 mM histidine buffer, (iii) 120 mM glycine, (iv) 120 mM arginine, and (v) 0.01 wt% polysorbate 20; wherein each of (A)-(G) has a pH of 5.2. (i) 50 mg/mL adalimumab, (ii) 20 mM histidine buffer, (iii) 120 mM glycine, (iv) 120 mM arginine, and (v) 0.01 wt% polysorbate 20;
An aircraft seat , the aircraft seat comprising at least one moveable element , a cam follower arrangement associated with the moveable element, wherein the cam follower arrangement comprises a first cam follower and a second cam follower attached to a common bogie , the first cam follower and second cam follower having a common diameter, and wherein the first and second cam followers are spaced apart no further than the common diameter.
An appliance comprising: a power transmitter ; a data receiver ; an antenna operatively coupled to the power transmitter and data receiver , and an appliance sensor unit comprising one or more sensors and a sensor unit antenna operatively coupled to an energy harvesting device and to a data transmitter , wherein the antenna is configured to switchably transmit energy from the power transmitter to power the appliance sensor unit, and receive data to the data receiver from the appliance sensor unit, a frequency being used by the antenna that is the same for both transmission of the energy and reception of the data. a power transmitter ; a data receiver ; an antenna operatively coupled to the power transmitter and data receiver , and an appliance sensor unit comprising one or more sensors and a sensor unit antenna operatively coupled to an energy harvesting device and to a data transmitter , wherein the antenna is configured to switchably transmit energy from the power transmitter to power the appliance sensor unit, and receive data to the data receiver from the appliance sensor unit, a frequency being used by the antenna that is the same for both transmission of the energy and reception of the data.
A thermally-conductive electromagnetic interference (EMI) absorber comprising a material including thermally-conductive particles, EMI absorbing particles, and silicon carbide, whereby the silicon carbide is present in an amount predetermined to synergistically enhance both thermal conductivity and EMI absorption of the thermally conductive EMI absorber, wherein the material comprises a polymer matrix loaded with the thermally-conductive particles, the EMI absorbing particles, and the silicon carbide such that the thermally-conductive EMI absorber includes at least 6 volume percent of the thermally-conductive particles, at least 8 volume percent of the EMI absorbing particles, and at least 21 volume percent of the silicon carbide; or wherein the material comprises a silicone elastomer matrix that includes magnetic flakes, carbonyl iron powder, alumina, manganese zinc ferrite, and the silicon carbide, such that the thermally-conductive EMI absorber includes 2 to 4 volume percent of the magnetic flakes, 3 to 5 volume percent of carbonyl iron powder, 18 to 23 volume percent of the alumina, 27 to 40 volume percent of the manganese zinc ferrite, and 4 to 10 volume percent of the silicon carbide.