mhurhangee/ep-ind-claims huggingface dataset:
Process for producing olefinic compounds and a hydrocarbon fuel or a fraction thereof, which comprises: (a) subjecting to metathesis reaction a mixture of glycerides having at least one unsaturated hydrocarbon chain, possibly in mixture with free fatty acids, with at least one monoolefin C 2 -C 6 in the presence of a metathesis catalyst, so as to obtain a mixture of glycerides having at least one unsaturated hydrocarbon chain with a length less than the initial one, and a mixture of olefins C 6 -C 18; (b) separating the mixture of olefins C 6 -C 18 from the mixture of glycerides obtained by step (a); (c) subjecting the mixture of glycerides obtained by stage (b) to a transesterification reaction with an alcohol selected from methanol, ethanol or mixtures thereof, so as to obtain a mixture of methyl and/or ethyl esters and glycerol; (c') separating the glycerol from the mixture of methyl and/or ethyl esters, and then (c") separating the methyl and/or ethyl esters having an unsaturated hydrocarbon chain from the methyl and/or ethyl esters having a saturated hydrocarbon chain, (d) subjecting the methyl and/or ethyl esters having a saturated hydrocarbon chain obtained by step (c") to a catalytic hydro-deoxygenisation process and then catalytic hydro-isomerisation, so as to obtain the hydrocarbon fuel or a fraction thereof. (a) subjecting to metathesis reaction a mixture of glycerides having at least one unsaturated hydrocarbon chain, possibly in mixture with free fatty acids, with at least one monoolefin C 2 -C 6 in the presence of a metathesis catalyst, so as to obtain a mixture of glycerides having at least one unsaturated hydrocarbon chain with a length less than the initial one, and a mixture of olefins C 6 -C 18; (b) separating the mixture of olefins C 6 -C 18 from the mixture of glycerides obtained by step (a); (c) subjecting the mixture of glycerides obtained by stage (b) to a transesterification reaction with an alcohol selected from methanol, ethanol or mixtures thereof, so as to obtain a mixture of methyl and/or ethyl esters and glycerol; (c') separating the glycerol from the mixture of methyl and/or ethyl esters, and then (c") separating the methyl and/or ethyl esters having an unsaturated hydrocarbon chain from the methyl and/or ethyl esters having a saturated hydrocarbon chain, (d) subjecting the methyl and/or ethyl esters having a saturated hydrocarbon chain obtained by step (c") to a catalytic hydro-deoxygenisation process and then catalytic hydro-isomerisation, so as to obtain the hydrocarbon fuel or a fraction thereof.
Method (700; 800) for forming a layer stack (100; 200) for a touch panel, the method comprising: depositing (710; 810) a layer of transparent conductive oxide on a substrate (110; 210) comprising a polymer; patterning (720; 820) the layer of transparent conductive oxide (160; 260) so as to form gaps between areas of transparent conductive oxide; filling (730; 830) the gaps of the patterned layer of transparent conductive oxide (160; 260) with a first dielectric material (170; 270); removing (740; 840) the first dielectric material (170; 270) deposited directly on the areas of transparent conductive oxide of the patterned layer of transparent conductive oxide (160; 260); and providing (750; 850) a dielectric layer (180; 280) directly on the area of transparent conductive oxide and directly on the first dielectric material (170; 270). depositing (710; 810) a layer of transparent conductive oxide on a substrate (110; 210) comprising a polymer; patterning (720; 820) the layer of transparent conductive oxide (160; 260) so as to form gaps between areas of transparent conductive oxide; filling (730; 830) the gaps of the patterned layer of transparent conductive oxide (160; 260) with a first dielectric material (170; 270); removing (740; 840) the first dielectric material (170; 270) deposited directly on the areas of transparent conductive oxide of the patterned layer of transparent conductive oxide (160; 260); and providing (750; 850) a dielectric layer (180; 280) directly on the area of transparent conductive oxide and directly on the first dielectric material (170; 270).
A power tool comprising: a housing defining a handle of the tool, which handle has an interior cavity; a transmission housing received in the interior cavity of the handle housing, said transmission housing having a first end, a second end, a bore that extends between said first and second ends, said bore defining an axis of the transmission housing, and a plurality of teeth (218, 220, 226) formed circumferentially about said bore and; a transmission at least partially received in said bore of said transmission housing, said transmission having a plurality of reduction gear sets (302, 304, 306) and at least one ring gear (360, 400) that is axially movable in said transmission housing to affect a change in an overall gear ratio of said transmission, said at least one ring gear (360, 400) being axially movable between a first condition, wherein said at least one ring gear (360, 400) is disengaged from said teeth (218, 220, 226) and a second condition, wherein said at least one ring gear (360, 400) is engaged to said teeth (218, 220, 226), the power tool characterised in that a first portion of said teeth (218, 220, 226) is longer than a second portion of said teeth (218, 220, 226) such that when said at least one ring gear (360, 400) is moved from said first condition to said second condition, said at least one ring gear (360, 400) engages said first portion of said teeth (218, 220, 226) before it engages said second portion of said teeth (218, 220, 226). a housing defining a handle of the tool, which handle has an interior cavity; a transmission housing received in the interior cavity of the handle housing, said transmission housing having a first end, a second end, a bore that extends between said first and second ends, said bore defining an axis of the transmission housing, and a plurality of teeth (218, 220, 226) formed circumferentially about said bore and; a transmission at least partially received in said bore of said transmission housing, said transmission having a plurality of reduction gear sets (302, 304, 306) and at least one ring gear (360, 400) that is axially movable in said transmission housing to affect a change in an overall gear ratio of said transmission, said at least one ring gear (360, 400) being axially movable between a first condition, wherein said at least one ring gear (360, 400) is disengaged from said teeth (218, 220, 226) and a second condition, wherein said at least one ring gear (360, 400) is engaged to said teeth (218, 220, 226), the power tool characterised in that a first portion of said teeth (218, 220, 226) is longer than a second portion of said teeth (218, 220, 226) such that when said at least one ring gear (360, 400) is moved from said first condition to said second condition, said at least one ring gear (360, 400) engages said first portion of said teeth (218, 220, 226) before it engages said second portion of said teeth (218, 220, 226).
Method for jacketing an elongated item such as more particularly leads or cable sets, where an adhesive tape is guided in a helical line around the elongated item or the elongated item is wrapped in an axial direction by the adhesive tape, the elongated item together with the adhesive tape wrapping is brought into the desired disposition, more particularly into the cable set plan, the elongated item is held in this disposition, the curable adhesive is brought to cure by the supply of UV radiation energy, characterized in that the adhesive tape comprises a tapelike carrier provided on at least one side with an adhesive layer which consists of a self-adhesive, pressure-sensitive adhesive, the self-adhesive pressure-sensitive adhesive being a UV-curable composition comprising, based on the total weight of the composition: 15 to 50 parts by weight of matrix polymer; 50 to 85 parts by weight of epoxy resin; 0.1 to 3 parts by weight of photoinitiator, with the matrix polymer forming a self-supporting film in which epoxy resin and photoinitiator are embedded. 15 to 50 parts by weight of matrix polymer; 50 to 85 parts by weight of epoxy resin; 0.1 to 3 parts by weight of photoinitiator, with the matrix polymer forming a self-supporting film in which epoxy resin and photoinitiator are embedded.
A medical device comprising an interior surface that defines a cavity or lumen, and an exterior surface, wherein the interior surface is treated with a first formulation including: methyl-ethyl-ketone 50-70%; methanol 10-20%; acetone 15-25%; chlorhexidine diacetate 0.5-4%; and chlorhexidine free base 0.5-4% resulting in coating or impregnation with an antimicrobially effective amount of chlorhexidine, wherein the exterior surface of the medical device is treated with a second formulation including: tetrahydrofuran 70-90% by weight; methanol 5-15%; polyurethane 1-15%; and chlorhexidine diacetate 0.5-4.0% resulting in coating or impregnation with an antimicrobially effect amount of chlorhexidine wherein the medical device does not comprise triclosan and does not comprise silver salt. methyl-ethyl-ketone 50-70%; methanol 10-20%; acetone 15-25%; chlorhexidine diacetate 0.5-4%; and chlorhexidine free base 0.5-4% resulting in coating or impregnation with an antimicrobially effective amount of chlorhexidine, wherein the exterior surface of the medical device is treated with a second formulation including: tetrahydrofuran 70-90% by weight; methanol 5-15%; polyurethane 1-15%; and chlorhexidine diacetate 0.5-4.0% resulting in coating or impregnation with an antimicrobially effect amount of chlorhexidine wherein the medical device does not comprise triclosan and does not comprise silver salt.
Method for producing a metal oxide powder in which a) a material stream I containing vaporous hydrolysable metal compound, b) a material stream II containing oxygen and c) a material stream III containing at least one fuel gas are brought to reaction, characterized in that d) via a feed-in point provided in a pipe piece A, wherein the pipe piece A comprises one or more static mixer elements, the material stream I is introduced into the material stream II, or vice versa, and thereby generates the material stream IV, then e) via a feed-in point provided in a pipe piece B, wherein the pipe piece B comprises one or more static mixer elements, the material stream III is introduced into the material stream IV and thereby generates the material stream V, f) the material stream V leaving the pipe piece B is introduced into a reaction chamber, ignited there and converted into a flame and g) the resultant solids are separated off. a) a material stream I containing vaporous hydrolysable metal compound, b) a material stream II containing oxygen and c) a material stream III containing at least one fuel gas are brought to reaction, characterized in that d) via a feed-in point provided in a pipe piece A, wherein the pipe piece A comprises one or more static mixer elements, the material stream I is introduced into the material stream II, or vice versa, and thereby generates the material stream IV, then e) via a feed-in point provided in a pipe piece B, wherein the pipe piece B comprises one or more static mixer elements, the material stream III is introduced into the material stream IV and thereby generates the material stream V, f) the material stream V leaving the pipe piece B is introduced into a reaction chamber, ignited there and converted into a flame and g) the resultant solids are separated off.
The use of a protected solid adsorbent in a heat-to-power or heat-to-chilling sorption process that utilizes direct heating and cooling of the adsorbent, wherein the adsorbent includes a solid adsorbent substrate protected by a surface layer, that is at least partially coating the solid adsorbent substrate, thereby eliminating the interaction between the heating/cooling fluid and the adsorbent, while ensuring access of an active gas to the adsorbent for adsorption and desorption, wherein the surface layer comprises one of an organometallic compound, a substituted or unsubstituted hexadecane, or a chlorinated hydrocarbon.
A surgical stapler comprising: a first jaw having a staple cartridge and a second jaw including an anvil, the cartridge and anvil each having an inwardly facing surface; a staple line buttress material releasably disposed on the inwardly facing surface of the anvil; characterised in that: the anvil has a raised region on the inwardly facing surface thereof, and the raised region has projections (50, 52) extending proximally therefrom; and the staple line buttress material having cut outs (62, 64) therein for receiving the projections (50,52) to hold the staple line buttress material on the anvil. a first jaw having a staple cartridge and a second jaw including an anvil, the cartridge and anvil each having an inwardly facing surface; a staple line buttress material releasably disposed on the inwardly facing surface of the anvil; the anvil has a raised region on the inwardly facing surface thereof, and the raised region has projections (50, 52) extending proximally therefrom; and the staple line buttress material having cut outs (62, 64) therein for receiving the projections (50,52) to hold the staple line buttress material on the anvil.
A radio transmission apparatus that transmits a radio signal, comprising: a modulator (2802, 2803) that modulates data using one of first modulation schemes to obtain first modulated data and modulates data using one of second modulation schemes to obtain second modulated data, a M-ary number of the second modulation schemes is higher than a M-ary number of the first modulation schemes; characterized in that: the apparatus further comprises a spreader (2804, 2805) that spreads the first modulated data to obtain first chips and spreads the second modulated data to obtain second chips; and a mapping unit that maps the first chips and the second chips on a plurality of subcarriers in a domain defined by a frequency axis and a time axis, said mapping unit maps the first chips along the frequency axis and maps the second chips along the time axis. a modulator (2802, 2803) that modulates data using one of first modulation schemes to obtain first modulated data and modulates data using one of second modulation schemes to obtain second modulated data, a M-ary number of the second modulation schemes is higher than a M-ary number of the first modulation schemes; characterized in that: the apparatus further comprises a spreader (2804, 2805) that spreads the first modulated data to obtain first chips and spreads the second modulated data to obtain second chips; and a mapping unit that maps the first chips and the second chips on a plurality of subcarriers in a domain defined by a frequency axis and a time axis, said mapping unit maps the first chips along the frequency axis and maps the second chips along the time axis. the apparatus further comprises a spreader (2804, 2805) that spreads the first modulated data to obtain first chips and spreads the second modulated data to obtain second chips; and a mapping unit that maps the first chips and the second chips on a plurality of subcarriers in a domain defined by a frequency axis and a time axis, said mapping unit maps the first chips along the frequency axis and maps the second chips along the time axis.
Sanitary insertion unit having a flow regulator, which flow regulator comprises a regulator housing, in which regulator housing there is provided a first regulator unit, which first regulator unit has a first ring-shaped duct, which ring-shaped duct encompasses a core and in which first ring-shaped duct a ring-shaped throttle body produced from elastic material is arranged, which throttle body delimits a control gap between itself and a regulating profiling which is provided on an inside and/or outside channel wall of the first ring-shaped duct, the passage cross section of which control gap is modifiable by way of the throttle body which deforms under the pressure difference that forms when a flow passes through, wherein in the core of the first regulator unit there is provided at least one inside second regulator unit which has a second ring-shaped duct with a ring-shaped throttle body produced from elastic material arranged therein, which throttle body delimits a control gap between itself and a regulating profiling of the second ring-shaped duct, characterized in that the insertion unit has a jet regulator, which comprises in its jet regulator housing a pot-shaped jet splitter, the pot base of which forms an impingement surface which diverts the water coming from the regulator units (4, 9) outwardly transversely with respect to the jet regulator longitudinal axis toward passage openings in the circumferential wall of the pot-shaped jet splitter, wherein a central diverting cone is provided on the pot base of the jet splitter, and the at least one second ring-shaped duct of the flow regulator is aligned such that at least a partial quantity of the water emerging there strikes the diverting cone.
In a network component, a method for partitioning an internet protocol, IP, radio access network, RAN, network (100, 300, 400), the method comprising: finding one or more rings of network nodes and one or more chains of network nodes, of the IP RAN network, using network topology information corresponding to the IP RAN network, wherein the network nodes comprise aggregate site gateway, ASG, nodes (302A-302J) and cell site gateway, CSG, nodes (304A-304AA); finding one or more ring clusters that comprises a plurality of network nodes using the one or more rings and the one or more chains, wherein each of the ring clusters comprises one or more ring sets and/or chains sets that share one or more common CSG links; dividing the one or more ring clusters that exceed a network node threshold number of network nodes, wherein dividing one of the ring clusters comprises: finding a minimum ring set for one or more of the ring clusters; generating a ring cluster database, RCDB, graph using the minimum ring set; and partitioning the RCDB graph using a dynamic k-cut algorithm; forming a plurality of interior gateway protocol, IGP, areas using the ring clusters obtained after dividing; refining one or more of the IGP areas based on the network node threshold and an ASG node threshold, wherein the network node threshold is the maximum number of network nodes for the IGP areas and wherein the ASG node threshold is the minimum number of ASG nodes for the IGP areas; and communicating topology information about the IGP areas. finding one or more rings of network nodes and one or more chains of network nodes, of the IP RAN network, using network topology information corresponding to the IP RAN network, wherein the network nodes comprise aggregate site gateway, ASG, nodes (302A-302J) and cell site gateway, CSG, nodes (304A-304AA); finding one or more ring clusters that comprises a plurality of network nodes using the one or more rings and the one or more chains, wherein each of the ring clusters comprises one or more ring sets and/or chains sets that share one or more common CSG links; dividing the one or more ring clusters that exceed a network node threshold number of network nodes, wherein dividing one of the ring clusters comprises: finding a minimum ring set for one or more of the ring clusters; generating a ring cluster database, RCDB, graph using the minimum ring set; and partitioning the RCDB graph using a dynamic k-cut algorithm; finding a minimum ring set for one or more of the ring clusters; generating a ring cluster database, RCDB, graph using the minimum ring set; and partitioning the RCDB graph using a dynamic k-cut algorithm; forming a plurality of interior gateway protocol, IGP, areas using the ring clusters obtained after dividing; refining one or more of the IGP areas based on the network node threshold and an ASG node threshold, wherein the network node threshold is the maximum number of network nodes for the IGP areas and wherein the ASG node threshold is the minimum number of ASG nodes for the IGP areas; and communicating topology information about the IGP areas.
A talc particulate having a d 50 of from 0.5 to 5.0 μm and a shape factor equal to or greater than 40, and comprising less than 500 ppm of particles having a particle size of equal to or greater than 45 μm.
An end ring for use in filament winding a pressure vessel, comprising: an outer flange; a platform supporting at least one spike, the at least one spike comprising a base dimension and a tapered portion. an outer flange; a platform supporting at least one spike, the at least one spike comprising a base dimension and a tapered portion.
An interactive display device comprising: a touch sensor including a plurality of electrodes (202, 204), where the interactive display device is configured to excite one or more electrodes of the touch sensor according to a touch-sensing frame performed repeatedly to sense touch input to the touch sensor, the touch-sensing frame being divided into a plurality of different time slots including at least a touch-sensing time slot and an information-sending time slot, where the one or more electrodes of the touch sensor form a capacitive coupling with an electrode of an input device, where the interactive display device is configured to use the capacitive coupling to determine a position of the input device during the touch-sensing time slot, and where the interactive display device is configured to use the capacitive coupling to capacitively send a cryptographic key via an electrostatic channel to the input device during the information-sending time slot; and a radio transceiver configured to communicate via a radio channel (302, 304), where the interactive display device is configured to subsequently exchange encrypted communications over the radio channel, the encrypted communications being encrypted using the cryptographic key, where the interactive display device is configured to send the cryptographic key by exciting a subset of the plurality of electrodes of the touch sensor, the subset being selected based on the position of the electrode of the input device. a touch sensor including a plurality of electrodes (202, 204), where the interactive display device is configured to excite one or more electrodes of the touch sensor according to a touch-sensing frame performed repeatedly to sense touch input to the touch sensor, the touch-sensing frame being divided into a plurality of different time slots including at least a touch-sensing time slot and an information-sending time slot, where the one or more electrodes of the touch sensor form a capacitive coupling with an electrode of an input device, where the interactive display device is configured to use the capacitive coupling to determine a position of the input device during the touch-sensing time slot, and where the interactive display device is configured to use the capacitive coupling to capacitively send a cryptographic key via an electrostatic channel to the input device during the information-sending time slot; and a radio transceiver configured to communicate via a radio channel (302, 304), where the interactive display device is configured to subsequently exchange encrypted communications over the radio channel, the encrypted communications being encrypted using the cryptographic key, where the interactive display device is configured to send the cryptographic key by exciting a subset of the plurality of electrodes of the touch sensor, the subset being selected based on the position of the electrode of the input device.