mhurhangee/patent-ind-claim-en huggingface dataset:
Use of a device for inductive heating of an electrically conductive, preferably metallic, insertion part as a component of an injection-molded part during its production in an injection-molding process in an injection-molding tool of an injection-molding system , wherein the injection-molding tool has a first cavity which is adjacent to a shaping second cavity ; wherein an inductor of the device for inductive heating is positioned in the first cavity , wherein a partition wall is formed between the cavities , and wherein the partition wall has one or more openings for regionally positioning at least one insertion part in the first and second cavities , such that the insertion part extends into the electromagnetic field of the inductor , characterized in that at least one support element in the form of a projection is arranged in the first cavity , which projection extends parallel to the opening direction over the entire length of the first cavity as far as the partition wall and via which a counterforce to the injection pressure during injection molding can be transmitted to the partition wall in such a way that force transmission is diverted past the device for induction heating. wherein a partition wall is formed between the cavities , and wherein the partition wall has one or more openings for regionally positioning at least one insertion part in the first and second cavities , such that the insertion part extends into the electromagnetic field of the inductor , characterized in that at least one support element in the form of a projection is arranged in the first cavity , which projection extends parallel to the opening direction over the entire length of the first cavity as far as the partition wall and via which a counterforce to the injection pressure during injection molding can be transmitted to the partition wall in such a way that force transmission is diverted past the device for induction heating.
Sealing device for a flow machine, wherein the sealing device comprises a flap seal , a surface , a first protrusion protruding from the surface , a second protrusion protruding from the surface and a biasing means that is supported on the first protrusion and the second protrusion and is adapted to push the flap seal away from the first protrusion and the second protrusion in a direction transversal to the normal of the surface , characterized in that the biasing means comprises a foot that protrudes from a first region of the biasing means in a direction towards the surface , wherein the first region is arranged immediately neighboured to the foot , wherein the foot contacts the surface and biases the remaining biasing means in a direction away from the first protrusion and the second protrusion .
A lower vehicle-body structure of an electric vehicle comprising: a dash panel ; a floor having a tunnel formed in a front part below the dash panel at a middle in a vehicle-width direction, the tunnel being adapted for housing an expanding portion expanding upward of a battery unit disposed below the floor ; and a floor cross member spanning, above the floor , between side sills disposed on opposite sides of the floor , wherein a rear end of the tunnel is located directly in front of the floor cross member , and a reinforcing bracket is provided extending from the tunnel toward the floor cross member on a rear side of the tunnel so as to be spaced upward from the floor , and connected to an upper part of the floor cross member , wherein the reinforcing bracket includes a tunnel reinforcing bracket extending rearward from the tunnel , and a console support bracket provided on a rear side of the tunnel reinforcing bracket and connected to a rear part of the tunnel reinforcing bracket and the floor cross member on the rear side of the tunnel reinforcing bracket , characterized in that the tunnel reinforcing bracket is connected to an upper end of the floor cross member via the console support bracket . a dash panel ; a floor having a tunnel formed in a front part below the dash panel at a middle in a vehicle-width direction, the tunnel being adapted for housing an expanding portion expanding upward of a battery unit disposed below the floor ; and a floor cross member spanning, above the floor , between side sills disposed on opposite sides of the floor , wherein a rear end of the tunnel is located directly in front of the floor cross member , and a reinforcing bracket is provided extending from the tunnel toward the floor cross member on a rear side of the tunnel so as to be spaced upward from the floor , and connected to an upper part of the floor cross member , wherein the reinforcing bracket includes a tunnel reinforcing bracket extending rearward from the tunnel , and a console support bracket provided on a rear side of the tunnel reinforcing bracket and connected to a rear part of the tunnel reinforcing bracket and the floor cross member on the rear side of the tunnel reinforcing bracket , characterized in that the tunnel reinforcing bracket is connected to an upper end of the floor cross member via the console support bracket .
A method for feeding back a hybrid automatic repeat request of downlink data, comprising: receiving (S601), by a terminal, downlink control information, DCI, from a base station using a physical downlink control channel, PDCCH, or an enhanced physical downlink control channel, EPDCCH; determining, by the terminal, a hybrid automatic repeat request, HARQ, feedback codebook according to a total downlink assignment indicator, total DAI, in the DCI; in response to a semi-persistent scheduling, SPS, physical downlink shared channel, PDSCH, transmission being activated, adding, by the terminal, one HARQ bit for the SPS PDSCH transmission to the HARQ feedback codebook; and sending (S602), by the terminal, the HARQ feedback codebook to the base station. receiving (S601), by a terminal, downlink control information, DCI, from a base station using a physical downlink control channel, PDCCH, or an enhanced physical downlink control channel, EPDCCH; determining, by the terminal, a hybrid automatic repeat request, HARQ, feedback codebook according to a total downlink assignment indicator, total DAI, in the DCI; in response to a semi-persistent scheduling, SPS, physical downlink shared channel, PDSCH, transmission being activated, adding, by the terminal, one HARQ bit for the SPS PDSCH transmission to the HARQ feedback codebook; and sending (S602), by the terminal, the HARQ feedback codebook to the base station.
A transparent thermoplastic resin, comprising: A) 45 to 75 % by weight of a graft resin prepared by graft-polymerizing 40 to 65 % by weight of a small-diameter conjugated diene rubber having a weight average particle diameter of 500 to 1,800 Å (a-1), 22 to 45 % by weight of a (meth)acrylic acid alkyl ester compound (a-2), 7 to 18 % by weight of an aromatic vinyl compound (a-3), and 0 to 10 % by weight of a vinyl cyanide compound (a-4); and B) 25 to 55 % by weight of a copolymer resin prepared by copolymerizing 60 to 80 % by weight of a (meth)acrylic acid alkyl ester compound (b-1), 15 to 35 % by weight of an aromatic vinyl compound (b-2), and 0 to 10 % by weight of a vinyl cyanide compound (b-3), wherein a weight ratio of the small-diameter conjugated diene rubber having a weight average particle diameter of 500 to 1,800 Å (a-1) to the (meth)acrylic acid alkyl ester compounds (a-2 and b-1), (a-1/(a-2 + b-1), is 0.57 to 0.70. A) 45 to 75 % by weight of a graft resin prepared by graft-polymerizing 40 to 65 % by weight of a small-diameter conjugated diene rubber having a weight average particle diameter of 500 to 1,800 Å (a-1), 22 to 45 % by weight of a (meth)acrylic acid alkyl ester compound (a-2), 7 to 18 % by weight of an aromatic vinyl compound (a-3), and 0 to 10 % by weight of a vinyl cyanide compound (a-4); and B) 25 to 55 % by weight of a copolymer resin prepared by copolymerizing 60 to 80 % by weight of a (meth)acrylic acid alkyl ester compound (b-1), 15 to 35 % by weight of an aromatic vinyl compound (b-2), and 0 to 10 % by weight of a vinyl cyanide compound (b-3),
A device for producing a three-dimensional object by a layer-wise application and selective solidification of a construction material in powder form, having a processing chamber for a layer-wise manufacturing of the object in a swap container and/or on a construction platform , and a device for unpacking the object from the powder surrounding the same that remained unsolidified, wherein the device includes a rotary device which is rotatably disposed and which is capable of receiving the swap container and/or the construction platform and of rotating the same by an angle of at least 90° from the upright position.
A computer-implemented method , comprising: determining , according to a sampling rate, a set of limbus center values of a limbus of a user eye, wherein determining the set of limbus center values comprises measuring a first limbus center value at a first time and measuring a second limbus center value at a second time; determining , according to the sampling rate, a set of pupil center values of a pupil of the user eye, wherein determining the set of pupil center values comprises measuring a first pupil center value at the first time and measuring a second pupil center value at the second time; determining , according to the sampling rate, a set of radius values of the pupil, wherein determining the set of radius values comprises measuring a first radius value at the first time and measuring a second radius value at the second time; and forming an offset model based on (i) the set of limbus center values, (ii) the set of pupil center values, and (iii) the set of radius values, the offset model describing an estimated offset between a limbus center and a pupil center as a function of pupil size, wherein the offset model is compensating for changes between pupil centers with respect to the limbus centers as a function of pupil size; using an eye tracking algorithm to track the user eye based on the offset model. determining , according to a sampling rate, a set of limbus center values of a limbus of a user eye, wherein determining the set of limbus center values comprises measuring a first limbus center value at a first time and measuring a second limbus center value at a second time; determining , according to the sampling rate, a set of pupil center values of a pupil of the user eye, wherein determining the set of pupil center values comprises measuring a first pupil center value at the first time and measuring a second pupil center value at the second time; determining , according to the sampling rate, a set of radius values of the pupil, wherein determining the set of radius values comprises measuring a first radius value at the first time and measuring a second radius value at the second time; and forming an offset model based on (i) the set of limbus center values, (ii) the set of pupil center values, and (iii) the set of radius values, the offset model describing an estimated offset between a limbus center and a pupil center as a function of pupil size, wherein the offset model is compensating for changes between pupil centers with respect to the limbus centers as a function of pupil size; using an eye tracking algorithm to track the user eye based on the offset model.
A multilayer film comprising: (a) a first layer comprising a first composition, wherein the first composition comprises at least one ethylene-based polymer and wherein the first composition has a density of less than 0.935 g/cm 3 , a melt index (I 2 ) of less than 2.0 g/10 minutes, a MWCDI value greater than 0.9, and a melt index ratio (I 10 /I 2 ) that meets the following equation: I 10 /I 2 ≥ 7.0 - 1.2 x log (I 2 ), wherein the first layer comprises at least 50 percent by weight of the first composition based on the weight of the first layer; (b) a second layer comprising a first polyethylene having a density of greater than 0.950 g/cm 3 and a melt index (I 2 ) of less 2.0 g/10 minutes, wherein the second layer comprises at least 40 percent by weight of the first polyethylene based on the weight of the second layer; and (c) a third layer which is a sealant layer, wherein the multilayer film comprises at least 29 weight percent of the first composition based on the total weight of the film, and wherein the multilayer film comprises at least 15 weight percent of the first polyethylene based on the total weight of the film, wherein the multilayer film does not include polyamide, wherein the multilayer film has an overall density from 0.924 to 0.940 g/cm 3 , wherein the densities are measured according to ASTM D792 (method B), the melt indices I 2 and I 10 are measured according to ASTM D1238 (method B) at 190°C and at 2.16 kg and 10 kg load, respectively, and the MWCDI is measured as set out in the description. (a) a first layer comprising a first composition, wherein the first composition comprises at least one ethylene-based polymer and wherein the first composition has a density of less than 0.935 g/cm 3 , a melt index (I 2 ) of less than 2.0 g/10 minutes, a MWCDI value greater than 0.9, and a melt index ratio (I 10 /I 2 ) that meets the following equation: I 10 /I 2 ≥ 7.0 - 1.2 x log (I 2 ), wherein the first layer comprises at least 50 percent by weight of the first composition based on the weight of the first layer; (b) a second layer comprising a first polyethylene having a density of greater than 0.950 g/cm 3 and a melt index (I 2 ) of less 2.0 g/10 minutes, wherein the second layer comprises at least 40 percent by weight of the first polyethylene based on the weight of the second layer; and (c) a third layer which is a sealant layer, wherein the multilayer film does not include polyamide, wherein the multilayer film has an overall density from 0.924 to 0.940 g/cm 3 , wherein the densities are measured according to ASTM D792 (method B), the melt indices I 2 and I 10 are measured according to ASTM D1238 (method B) at 190°C and at 2.16 kg and 10 kg load, respectively, and the MWCDI is measured as set out in the description.
Segment collet with at least two clamping segments formed from a segment body , at the first end of which a segment head is arranged and at the second end of which, opposite the first end, a segment foot is arranged, wherein in each of the segment feet a receptacle is formed, in which a coupling ring connecting the clamping segments to one another is received, for connecting it to the clamping segments , securing means are provided both for limiting the axial movability and for circumferentially fixing the position of the clamping segments relative to the coupling ring , wherein the receptacles are formed in the clamping segments at the end faces and the securing means are associated with the receptacles , wherein the coupling ring is formed from securing sections received in the receptacles and from web sections connecting the securing sections to one another, and the securing means are formed from a recess associated with one of the receptacle and coupling ring and from a securing element associated with the other of the receptacle and coupling ring , characterised in that the recess formed as a locking receiver is radially oriented and the securing element , which is also arranged in the radial direction and is formed as a locking member , engages in the locking receiver , or in that the recesses are formed in the axial direction on the receivers of the clamping segments and the securing elements are arranged on the securing sections of the coupling ring .
A Transforming Growth Factor beta (TGFβ) antagonist for use in treating cancer in combination with capecitabine and ixabepilone in a subject, wherein said TGFβ antagonist enhances the efficacy of capecitabine and ixabepilone in treating said cancer.
A hydrogel comprising hyaluronic acid (HA) or a derivative thereof, loaded with at least one positively charged antimicrobial peptide, without said peptide being covalently linked to the hydrogel, wherein said HA or derivative thereof is cross-linked with a cross-linking agent at the level of its hydroxyl moieties while the carboxyl moieties of HA or derivative thereof remain free and said HA or derivative thereof remains negatively charged, wherein the derivatives of hyaluronic acid are selected from the group consisting of: HA modified with an aldehyde group, amine-modified hyaluronic acid, HA containing photoreactive vinylbenzyl groups, HA modified with a methacrylate group, HA conjugated to Tyramine, and HA conjugated to catechol.
An air purifier , comprising: an air inlet ; an air outlet ; a filter for removing gas pollutants or particles from air propagating from the air inlet to the air outlet ; characterized in that the air purifier further comprises: a first sensor for determining a water molecule adsorption level of the filter ; a processor configured to determine a life-time of the filter based on a water molecule adsorption level of the filter measured by the first sensor . an air inlet ; an air outlet ; a filter for removing gas pollutants or particles from air propagating from the air inlet to the air outlet ; characterized in that the air purifier further comprises: a first sensor for determining a water molecule adsorption level of the filter ; a processor configured to determine a life-time of the filter based on a water molecule adsorption level of the filter measured by the first sensor . a first sensor for determining a water molecule adsorption level of the filter ; a processor configured to determine a life-time of the filter based on a water molecule adsorption level of the filter measured by the first sensor .
Garment , preferably protective garment, having a visible external surface and an internal surface adapted to face, in use, the body of a user, said garment comprising a first portion of said garment and a second portion defining a ventilation opening configured to place in communication said visible external surface and said internal surface, said garment further comprising a deformable element associated with said first portion of said protective garment , wherein said deformable element is configured to assume a first configuration, or closed configuration for preventing or hindering the passage of a ventilation air flow, and a second configuration, or open configuration for allowing the passage of a ventilation air flow through said ventilation opening , and wherein in said first configuration or closed configuration, the deformable element is in a rest condition, and in said second configuration, or open configuration, said deformable element has an arch configuration designed to define said ventilation opening , characterised in that said deformable element is a spring steel element, and the garment comprises a flap associated with said visible external surface of said garment and configured to cover at least partially said ventilation opening , wherein said deformable element is arranged in said flap , and since the deformable spring steel element is included in the flap, it is prevented by the flap from coiling up fully onto itself and remaining in the arch configuration.
Wind turbine group having a plurality of wind turbines which each comprise a rotor which can be rotated by wind, at least one electrical generator which can be driven thereby and a carrier structure which carries the rotor and the generator and which extends in a vertical direction , wherein the carrier structure of a first of the wind turbines is composed of a plurality of carrier structure segments which are arranged one above the other, and having an electrical group transformer which is electrically connected at the primary side to the generators of the wind turbines , wherein the group transformer is secured to an intermediate segment which is arranged between two adjacent segments of the carrier structure segments of the first wind turbine , characterised in that the wind turbines are arranged at sea and the group transformer is arranged at an outer side of the intermediate segment .
A sand control screen assembly having control line capture capability for use in a subterranean wellbore , the sand control screen assembly comprising: a base pipe ; a screen jacket positioned around the base pipe that is operable to prevent the flow of particulate material of a predetermined size therethrough and to allow the flow of production fluids therethrough, wherein the screen jacket comprises an outer shroud ; and a control line capture assembly coupled to the screen jacket, the control line capture assembly operable to receive, retain and protect the control line during installation of the sand control screen in the wellbore, wherein the control line capture assembly further comprises an axially extending flange coupled to the screen jacket, the flange operable to protect the control line during installation of the sand control screen in the wellbore, wherein the control line capture assembly further comprises an axially extending channel coupled to the flange, the channel operable to receive and retain the control line, wherein the flange further comprises a channel receptacle positioned between a pair of oppositely disposed legs having a plurality of axially distributed openings , wherein the channel is positioned in the channel receptacle and wherein the flange is configured to contact an outer wall of the outer shroud at a bottom of the channel receptacle , wherein the flange is further configured to contact the outer wall of the outer shroud along the edge of the legs , thereby forming a pair of axially extending fluid passageways with the outer shroud . a base pipe ; a screen jacket positioned around the base pipe that is operable to prevent the flow of particulate material of a predetermined size therethrough and to allow the flow of production fluids therethrough, wherein the screen jacket comprises an outer shroud ; and a control line capture assembly coupled to the screen jacket, the control line capture assembly operable to receive, retain and protect the control line during installation of the sand control screen in the wellbore, wherein the control line capture assembly further comprises an axially extending flange coupled to the screen jacket, the flange operable to protect the control line during installation of the sand control screen in the wellbore, wherein the control line capture assembly further comprises an axially extending channel coupled to the flange, the channel operable to receive and retain the control line, wherein the flange further comprises a channel receptacle positioned between a pair of oppositely disposed legs having a plurality of axially distributed openings , wherein the channel is positioned in the channel receptacle and wherein the flange is configured to contact an outer wall of the outer shroud at a bottom of the channel receptacle , wherein the flange is further configured to contact the outer wall of the outer shroud along the edge of the legs , thereby forming a pair of axially extending fluid passageways with the outer shroud .