mhurhangee/ep-ind-claims huggingface dataset:
A suture anchor device for anchoring a suture to bone in which the suture anchor device is to be implanted, the suture anchor device comprising: a body including a bone engaging portion and a lumen; a thread; and a free-swiveling thread-holding member positioned within the lumen and secured to the body in a manner where the free-swiveling thread-holding member is free to rotate or swivel with respect to the body, the free-swiveling thread-holding member configured such that the suture can pass through the free-swiveling thread-holding member, wherein the thread is linked to the body by a first end and a second end of the thread engaging with the body, the thread doubled and looped around the thread-holding member forming only one loop in the lumen of the body between the first end and the second end of the thread. a body including a bone engaging portion and a lumen; a thread; and a free-swiveling thread-holding member positioned within the lumen and secured to the body in a manner where the free-swiveling thread-holding member is free to rotate or swivel with respect to the body, the free-swiveling thread-holding member configured such that the suture can pass through the free-swiveling thread-holding member, wherein the thread is linked to the body by a first end and a second end of the thread engaging with the body, the thread doubled and looped around the thread-holding member forming only one loop in the lumen of the body between the first end and the second end of the thread.
A water-in-oil emulsion containing, based on its weight, a) from 0.1 to 5 wt.% polyglyceryl-2-dipolyhydroxystearate; b) at least one lipid or wax component having a melting point of > 50°C, c) at least one oil that is liquid under normal conditions (20°C and 1013.25 mbar) and that is not an odorant or an essential oil, d) from 5 to 70 wt.% water, based on the total composition, e) at least one multilayer pigment capsule comprising i) a particle core, ii) a first shell surrounding this particle core that contains, based on its weight, at least 50 wt.% colored pigments, iii) a second shell surrounding the first shell that contains, based on its weight, at least 50 wt.% titanium dioxide, iv) a third shell surrounding the second shell made of a water-insoluble, thermoplastic polymer. a) from 0.1 to 5 wt.% polyglyceryl-2-dipolyhydroxystearate; b) at least one lipid or wax component having a melting point of > 50°C, c) at least one oil that is liquid under normal conditions (20°C and 1013.25 mbar) and that is not an odorant or an essential oil, d) from 5 to 70 wt.% water, based on the total composition, e) at least one multilayer pigment capsule comprising i) a particle core, ii) a first shell surrounding this particle core that contains, based on its weight, at least 50 wt.% colored pigments, iii) a second shell surrounding the first shell that contains, based on its weight, at least 50 wt.% titanium dioxide, iv) a third shell surrounding the second shell made of a water-insoluble, thermoplastic polymer. i) a particle core, ii) a first shell surrounding this particle core that contains, based on its weight, at least 50 wt.% colored pigments, iii) a second shell surrounding the first shell that contains, based on its weight, at least 50 wt.% titanium dioxide, iv) a third shell surrounding the second shell made of a water-insoluble, thermoplastic polymer.
A method for implementing an image data communication protocol by a panel communicatively coupled over a wireless network to one or more alarm sensors and at least one image sensor, the method comprising: requesting, by the panel under the image data communication protocol, image data from the at least one image sensor by sending an image request packet to the at least one image sensor; and receiving, by the panel under the image data communication protocol, image data as an image data packet from the at least one image sensor; characterized by: the panel enabling channel monitoring for a channel condition of the wireless network to avoid the ongoing alarm packets colliding with any image packets and efficiently schedule image packet transmissions; and wherein if the channel monitoring indicates a busy channel, the panel delays a next image request packet until a wireless channel of the wireless network is not occupied for a time period that corresponds to a maximum interval between retransmitted alarm packets. requesting, by the panel under the image data communication protocol, image data from the at least one image sensor by sending an image request packet to the at least one image sensor; and receiving, by the panel under the image data communication protocol, image data as an image data packet from the at least one image sensor; characterized by: the panel enabling channel monitoring for a channel condition of the wireless network to avoid the ongoing alarm packets colliding with any image packets and efficiently schedule image packet transmissions; and wherein if the channel monitoring indicates a busy channel, the panel delays a next image request packet until a wireless channel of the wireless network is not occupied for a time period that corresponds to a maximum interval between retransmitted alarm packets. the panel enabling channel monitoring for a channel condition of the wireless network to avoid the ongoing alarm packets colliding with any image packets and efficiently schedule image packet transmissions; and wherein if the channel monitoring indicates a busy channel, the panel delays a next image request packet until a wireless channel of the wireless network is not occupied for a time period that corresponds to a maximum interval between retransmitted alarm packets.
Peristaltic pump, comprising - a rotary body with a plurality of squeeze sections arrange circularly distributed and moveable about a rotation axis, - a tube carrier for carrying a flexible tube along an arcuate engagement section arcuately surrounding the rotary body, - an actuator for selectively moving the tube carrier relative to the rotary body between a pump position in which a flexible tube carried by the tube carrier be positioned in engagement between the engagement section and at least one of the squeeze sections to allow for a pumping action when moving the rotary body about the rotation axis, and a release position in which the flexible tube carried by the tube carrier be disengage from the plurality of squeeze sections to allow for free flow through the flexible tube. the peristaltic pump is characterized in that the actuator is functionally connected to the tube carrier to allow for the movement of the tube carrier relative to the rotary body by a gear drive comprising a gear provided at the end of a rotational shaft of the actuator and a gear section rotatably connected to be moved about a second rotation axis and provided with a pin element, wherein by operational action of the actuator, the rotational shaft is able to rotate, which rotational action is transferred to gear and then further to gear section which in turn moves the pin element along an arcuate path in an engagement groove, to lift the tube carrier from the pump position to the release position, and vice versa. - a rotary body with a plurality of squeeze sections arrange circularly distributed and moveable about a rotation axis, - a tube carrier for carrying a flexible tube along an arcuate engagement section arcuately surrounding the rotary body, - an actuator for selectively moving the tube carrier relative to the rotary body between a pump position in which a flexible tube carried by the tube carrier be positioned in engagement between the engagement section and at least one of the squeeze sections to allow for a pumping action when moving the rotary body about the rotation axis, and a release position in which the flexible tube carried by the tube carrier be disengage from the plurality of squeeze sections to allow for free flow through the flexible tube. the peristaltic pump is characterized in that the actuator is functionally connected to the tube carrier to allow for the movement of the tube carrier relative to the rotary body by a gear drive comprising a gear provided at the end of a rotational shaft of the actuator and a gear section rotatably connected to be moved about a second rotation axis and provided with a pin element, wherein by operational action of the actuator, the rotational shaft is able to rotate, which rotational action is transferred to gear and then further to gear section which in turn moves the pin element along an arcuate path in an engagement groove, to lift the tube carrier from the pump position to the release position, and vice versa.
An apparatus comprising: a substrate comprising a metal oxide layer comprising at least one metal oxide selected from the group consisting of Indium Gallium Zinc Oxide, a-IGZO, Indium Tin Zinc Oxide, Aluminum Indium Oxide, Zinc Tin Oxide, Zinc Oxynitride, Magnesium Zinc Oxide, zinc oxide, InGaZnON, ZnON, ZnSnO, CdSnO, GaSnO, TiSnO, CuAIO, SrCuo, LaCuOS, GaN, InGaN, AlGaN or InGaAIN and combinations thereof; a silicon nitride layer deposited onto at least a portion of the metal oxide wherein the silicon nitride layer comprises a density of 2.4 g/cm 3 or greater, a hydrogen content of 4×10 22 cm -3 or less, and a transparency of 90% or greater at 400-700 nanometers as measured by a UV-visible light spectrometer; and a silicon oxide layer deposited between the metal oxide layer and the silicon nitride layer wherein the silicon oxide layer comprises a density of 2.2 g/cm 3 or greater and wherein the silicon oxide layer comprises a hydrogen content of 5 atomic % or less. a substrate comprising a metal oxide layer comprising at least one metal oxide selected from the group consisting of Indium Gallium Zinc Oxide, a-IGZO, Indium Tin Zinc Oxide, Aluminum Indium Oxide, Zinc Tin Oxide, Zinc Oxynitride, Magnesium Zinc Oxide, zinc oxide, InGaZnON, ZnON, ZnSnO, CdSnO, GaSnO, TiSnO, CuAIO, SrCuo, LaCuOS, GaN, InGaN, AlGaN or InGaAIN and combinations thereof; a silicon nitride layer deposited onto at least a portion of the metal oxide wherein the silicon nitride layer comprises a density of 2.4 g/cm 3 or greater, a hydrogen content of 4×10 22 cm -3 or less, and a transparency of 90% or greater at 400-700 nanometers as measured by a UV-visible light spectrometer; and a silicon oxide layer deposited between the metal oxide layer and the silicon nitride layer wherein the silicon oxide layer comprises a density of 2.2 g/cm 3 or greater and wherein the silicon oxide layer comprises a hydrogen content of 5 atomic % or less.
A method for determining a glucose concentration using a test strip having a working electrode and a reference electrode, the method comprising: applying a test voltage between the working electrode and the reference electrode; measuring a plurality of test currents when a blood sample containing glucose is applied to the test strip; calculating a glucose correlation value using an equation which is Y = ∑ t F ⁢ 1 t L ⁢ 1 I h G t ⁢ q t + ∑ t F ⁢ 2 t L ⁢ 2 I h G t ⁢ q t where t F 1 is a starting point of a first pre-determined time interval, t L 1 is an ending point of a first pre-determined time interval, t F 2 is a starting point of a second pre-determined time interval, t L 2 is an ending point of a second pre-determined time interval, I ( t) is a current as a function of hematocrit h, glucose G, and time t, q ( t) is a correction function of time t, where the starting and end time points of the time intervals are determined and optimised to reduce the effects of haematocrit; and calculating the glucose concentration based on the glucose correlation value. applying a test voltage between the working electrode and the reference electrode; measuring a plurality of test currents when a blood sample containing glucose is applied to the test strip; calculating a glucose correlation value using an equation which is Y = ∑ t F ⁢ 1 t L ⁢ 1 I h G t ⁢ q t + ∑ t F ⁢ 2 t L ⁢ 2 I h G t ⁢ q t where t F 1 is a starting point of a first pre-determined time interval, t L 1 is an ending point of a first pre-determined time interval, t F 2 is a starting point of a second pre-determined time interval, t L 2 is an ending point of a second pre-determined time interval, I ( t) is a current as a function of hematocrit h, glucose G, and time t, q ( t) is a correction function of time t, where the starting and end time points of the time intervals are determined and optimised to reduce the effects of haematocrit; and calculating the glucose concentration based on the glucose correlation value.
Carrier roller comprising a carrier roller sleeve having two roller hubs (5, 6) arranged at the ends and a hollow roller body which is arranged therebetween adjoining the inner surface of the roller sleeve on the inside and has a hollow cylindrical damping coat (2, 3), characterised in that the damping coat is formed as a double-layer annular body and has a first layer adjoining the inner surface of the roller sleeve on the inside in the form of a first tubular rubber cylindrical body and a second layer adjoining the first cylindrical body on the inside in the form of a second polyamide tubular cylindrical body, or in that the damping coat is formed as an annular body from a layer of reinforced, in particular recycled, conveyor belt material, which conveyor belt material consists at least substantially of rubber and/or polyamide outside the reinforcement.
A system for determining a set of routes, Sj, in a computerized environment, using a graph comprising a plurality of nodes and links connecting the nodes and being characterized by the set of routes being determined for one or more tokens, Tk, each token being associated with an origin node and a destination node included in said graph and with a token weight, the system being configured to: - receive, at a computer, a set of token constraints for each token, Tk, said token constraints received for each token comprising at least one constraint related to the token weight; - determine, by the computer, and for each token, Tk, a set of candidate routes satisfying at least some of the token constraints received for said token, each candidate route being connected by the origin node and the destination node associated with said token, said candidate route comprising at least one route link included in said graph, said route link being associated with a link weight; - determine, by the computer, shared route links, each shared route link being a route link comprised in a route in the sets of candidate routes determined for at least two tokens; - filter, by the computer, the set of candidate routes determined for the tokens, Tk, based on a condition related to the weight of each shared route link in a route of said sets of candidate routes and to the weights of the tokens sharing said link. - receive, at a computer, a set of token constraints for each token, Tk, said token constraints received for each token comprising at least one constraint related to the token weight; - determine, by the computer, and for each token, Tk, a set of candidate routes satisfying at least some of the token constraints received for said token, each candidate route being connected by the origin node and the destination node associated with said token, said candidate route comprising at least one route link included in said graph, said route link being associated with a link weight; - determine, by the computer, shared route links, each shared route link being a route link comprised in a route in the sets of candidate routes determined for at least two tokens; - filter, by the computer, the set of candidate routes determined for the tokens, Tk, based on a condition related to the weight of each shared route link in a route of said sets of candidate routes and to the weights of the tokens sharing said link.
Temperature control assembly for measuring devices, whereby the sample is arranged on a measuring plate, whereby the measuring plate is designed capable of being heated via a heating system with a heater and whereby a cooling system with a cooler is provided, which is designed capable of being brought into thermal contact - by temporary mechanical means - with the heater via a contacting device and whereby the heating system has a Peltier element as a Peltier heater, and an electrical resistive heater, characterised in that the Peltier element is arranged between the measuring plate and the electrical resistive heater.
An agricultural machine (7, 70), having at least one, in particular height-adjustable, chain drive (1, 11, 11', 11", 10, 100) with chain links (2, 20, 200), wherein the chain links (2, 20, 200) are bevelled at least in portions and/or designed to be flexible at least in portions, characterized in that the chain links (2, 20, 200) have lateral end portions that are bevelled and rounded and/or the chain drive (1, 11', 11", 11", 10, 100) has a conical barrel roller.
A dental adhesive composition consisting of: 67.96% w/w IMMA-HEMA having the formula: 20.60% w/w 2,2-bis[4-(2-hydroxy-3-methacryloyl-propoxyl)-phenyl]-propane, Bis-GMA; 10.68% w/w triethyleneglycol dimethacrylate, TEGDMA; 0.15% w/w camphorquinone, CQ; 0.60% w/w ethyl 4-(N,N-dimethylamino)benzoate, EDAB; and 0.01% w/w butylated hydroxytoluene, BHT; or consisting of: 33.98% w/w IMMA-HEMA having the formula: 10.30% w/w 2,2-bis[4-(2-hydroxy-3-methacryloyl-propoxyl)-phenyl]-propane, Bis-GMA; 5.34% w/w triethyleneglycol dimethacrylate, TEGDMA; 0.075% w/w camphorquinone, CQ; 0.30% w/w ethyl 4-(N,N-dimethylamino)benzoate, EDAB; 0.005% w/w butylated hydroxytoluene, BHT; and 50.00% w/w acetone. 67.96% w/w IMMA-HEMA having the formula: 20.60% w/w 2,2-bis[4-(2-hydroxy-3-methacryloyl-propoxyl)-phenyl]-propane, Bis-GMA; 10.68% w/w triethyleneglycol dimethacrylate, TEGDMA; 0.15% w/w camphorquinone, CQ; 0.60% w/w ethyl 4-(N,N-dimethylamino)benzoate, EDAB; and 0.01% w/w butylated hydroxytoluene, BHT; or consisting of: 33.98% w/w IMMA-HEMA having the formula: 10.30% w/w 2,2-bis[4-(2-hydroxy-3-methacryloyl-propoxyl)-phenyl]-propane, Bis-GMA; 5.34% w/w triethyleneglycol dimethacrylate, TEGDMA; 0.075% w/w camphorquinone, CQ; 0.30% w/w ethyl 4-(N,N-dimethylamino)benzoate, EDAB; 0.005% w/w butylated hydroxytoluene, BHT; and 50.00% w/w acetone.
A baler comprising: a rotor assembly having a first auger coupled to a support tube; a plurality of teeth coupled to the support tube along a bale chamber region; a rotor floor positioned along a portion of the rotor assembly; and a first auger core of the first auger coupled to the support tube; wherein, the rotor assembly rotates in an undershot direction wherein a leading portion of the rotor assembly is rotating partially toward the rotor floor; further wherein, an auger choke distance is defined as the distance between the first auger core and a floor plane; further wherein, a support tube distance is defined between the support tube and the floor plane and the auger choke distance is less than the support tube distance, wherein the auger core (314, 316) is coupled to the support tube with an auger coupler spacer, wherein the auger coupler spacer radially and axially aligns the auger core (314, 316) with the support tube, characterized in that, further comprising an auger spacer positioned between the auger core (314, 316) and the support tube, wherein the auger spacer maintains radial orientation of the auger core (314, 316) relative to the support tube but is not coupled to the auger core (314, 316). a rotor assembly having a first auger coupled to a support tube; a plurality of teeth coupled to the support tube along a bale chamber region; a rotor floor positioned along a portion of the rotor assembly; and a first auger core of the first auger coupled to the support tube; wherein, the rotor assembly rotates in an undershot direction wherein a leading portion of the rotor assembly is rotating partially toward the rotor floor; further wherein, an auger choke distance is defined as the distance between the first auger core and a floor plane; further wherein, a support tube distance is defined between the support tube and the floor plane and the auger choke distance is less than the support tube distance, wherein the auger core (314, 316) is coupled to the support tube with an auger coupler spacer, wherein the auger coupler spacer radially and axially aligns the auger core (314, 316) with the support tube, characterized in that, further comprising an auger spacer positioned between the auger core (314, 316) and the support tube, wherein the auger spacer maintains radial orientation of the auger core (314, 316) relative to the support tube but is not coupled to the auger core (314, 316).
A thermos flask, comprising a container having an opening on the upper side, on which a lid is held, said lid closing the opening when in a closed position and being able to be at least partially moved by means of an actuation element in order to partially release said opening such that liquid can be poured out, whereby the lid comprises an upper part fixed to the container and a bottom part which is pivotably held on the upper part, whereby only a single annular seal is arranged in the area of the opening of the container, said seal providing a sealing between an insulating body and a flask body on the one side and a sealing with the lid on the other side, whereby the bottom part of the lid rests on the seal in a closed position, characterized in that the actuation element is formed integrally with the bottom part.
A method for preparing a dimethyl pirazole phosphate liquid compound to improve efficiency of applying ammoniacal ammonium nitrogen fertilizers and ammonium present in the ground, CHARACTERIZED in that it comprises the steps of: • placing in a mixing tank of 4.000 liters of capacity and with mechanical agitator 2.400 to 3.600 kilos of phosphoric acid; • heating to reach a temperature between 53 and 92 °C degrees; • adding 380 to 550 kilos of 3,5 DMP (3,5 Dimethyl pirazole), maintaining the mix agitation in the mixing tank. • adding 500 litres of water, allowing to cool to between 25 ° C and 50 ° C; • adding at said temperature between 480 and 580 liters of amino acids; • completing the balance of the mixture with additional water to reach 4,000 liters of mixture while stirring is continued until homogenization of the mixture; • once finished the mixture and homogenized, cooling to a temperature of about between 10 ° C and 25 ° C; and • packaging the mixture of the liquid 3,5-dimethylpyrazole phosphate compound from the mixing tank. • placing in a mixing tank of 4.000 liters of capacity and with mechanical agitator 2.400 to 3.600 kilos of phosphoric acid; • heating to reach a temperature between 53 and 92 °C degrees; • adding 380 to 550 kilos of 3,5 DMP (3,5 Dimethyl pirazole), maintaining the mix agitation in the mixing tank. • adding 500 litres of water, allowing to cool to between 25 ° C and 50 ° C; • adding at said temperature between 480 and 580 liters of amino acids; • completing the balance of the mixture with additional water to reach 4,000 liters of mixture while stirring is continued until homogenization of the mixture; • once finished the mixture and homogenized, cooling to a temperature of about between 10 ° C and 25 ° C; and • packaging the mixture of the liquid 3,5-dimethylpyrazole phosphate compound from the mixing tank.