mhurhangee/ep-ind-claims huggingface dataset:
A surgical device comprising: an elongate body with a proximal end (11.1) and a distal end (11.2), and attachment means capable of attaching the elongate body to tubing (19.1), characterised by the elongate body comprising an abutment portion comprising a pair of integral outwardly flaring elongate wings which between them define a channel adapted for receiving a longitudinally adjacent trocar; wherein the dimensions of the wings are longer at the proximal end (11.1) than at the distal end (11.2) of the elongate body, thereby defining a relatively deeper channel (30.2) at the proximal end (11.1) of the elongate body and a relatively shallower channel (30.1) at the distal end (11.2) of the elongate body. an elongate body with a proximal end (11.1) and a distal end (11.2), and attachment means capable of attaching the elongate body to tubing (19.1), characterised by the elongate body comprising an abutment portion comprising a pair of integral outwardly flaring elongate wings which between them define a channel adapted for receiving a longitudinally adjacent trocar; wherein the dimensions of the wings are longer at the proximal end (11.1) than at the distal end (11.2) of the elongate body, thereby defining a relatively deeper channel (30.2) at the proximal end (11.1) of the elongate body and a relatively shallower channel (30.1) at the distal end (11.2) of the elongate body.
A method for fixing a cementitious sheet to a support, at least comprising the steps of: (i) providing a support; (ii) providing a cementitious sheet; (iii) providing at least one hole in said sheet; (iv) providing at least one hole in said support; (v) fixing said cementitious sheet to said support by means of at least one rivet, which rivet is inserted into the at least one hole in said sheet and into the at least one hole in said support, said rivet comprising: a metal rivet body with an axial length Lr, a metal rivet head, a metal mandrel and at least one polymer tubular member having a length Lm in axial direction, Lm being less than Lr, said polymer tubular member being coaxially mounted on said rivet body along its length Lm, and constricting the rivet, thereby fixing the cementitious sheet to the support, characterized in that: said length Lm of said polymer tubular member is at least identical or longer than the thickness of said cementitious sheet, and the outer diameter of said polymer tubular member is larger than the outer diameter of the at least one hole in said support. (i) providing a support; (ii) providing a cementitious sheet; (iii) providing at least one hole in said sheet; (iv) providing at least one hole in said support; (v) fixing said cementitious sheet to said support by means of at least one rivet, which rivet is inserted into the at least one hole in said sheet and into the at least one hole in said support, said rivet comprising: a metal rivet body with an axial length Lr, a metal rivet head, a metal mandrel and at least one polymer tubular member having a length Lm in axial direction, Lm being less than Lr, said polymer tubular member being coaxially mounted on said rivet body along its length Lm, and constricting the rivet, thereby fixing the cementitious sheet to the support, characterized in that: said length Lm of said polymer tubular member is at least identical or longer than the thickness of said cementitious sheet, and the outer diameter of said polymer tubular member is larger than the outer diameter of the at least one hole in said support.
Apparatus for determining and/or monitoring at least one process variable of a medium, with at least one probe unit and with at least one electronics unit, which directs a control signal to the probe unit and which receives a reception signal from the probe unit, wherein the probe unit has at least one probe electrode and at least one guard electrode and wherein the guard electrode in part coaxially surrounds the probe electrode, characterized in that the probe electrode and the guard electrode are surrounded by at least one insulation unit, which encompasses the probe unit entirely, and in that the insulation unit is less thick in the area of the guard electrode than in the area of the probe electrode.
6-{4-[1-(Propan-2-yl)piperidin-4-yl]-1,4-diazepan-1-yl}-N-(pyridin-4-yl)pyridine-2-carboxamide, or a pharmaceutically acceptable salt thereof, for use in treatment of CNS cancers.
A process for the preparation of the compound of formula I which process comprises acylating the oxime oxygen of the compound of formula VIII in the presence of a solvent and an acylating agent of formula XI R 1 -C -Cl, wherein X is oxygen or sulfur; R 1 is chloro if X is oxygen or sulfur; or R 1 is C 1 -C 6 alkoxy, CH 3 -C(=CH 2)-O-, phenoxy or trichloromethoxy if X is oxygen; and a) if R 1 is chloro and the compound of formula XI was added to the compound of formula VIII; reacting the so obtained product of formula Xlla wherein X is oxygen or sulfur; with the compound of formula IX or b) if R 1 is chloro and the compound of formula VIII was added to the compound of formula XI; or R 1 is C 1 -C 6 alkoxy, CH 3 -C(=CH 2)-O-, phenoxy or trichloromethoxy if X is oxygen; reacting the so obtained product of formula XII wherein X is oxygen or sulfur; R 1 is chloro if X is oxygen or sulfur; or R 1 is C 1 -C 6 alkoxy, CH 3 -C(=CH 2)-O-, phenoxy or trichloromethoxy if X is oxygen; with the compound of formula IX a) if R 1 is chloro and the compound of formula XI was added to the compound of formula VIII; reacting the so obtained product of formula Xlla wherein X is oxygen or sulfur; with the compound of formula IX or b) if R 1 is chloro and the compound of formula VIII was added to the compound of formula XI; or R 1 is C 1 -C 6 alkoxy, CH 3 -C(=CH 2)-O-, phenoxy or trichloromethoxy if X is oxygen; reacting the so obtained product of formula XII wherein X is oxygen or sulfur; R 1 is chloro if X is oxygen or sulfur; or R 1 is C 1 -C 6 alkoxy, CH 3 -C(=CH 2)-O-, phenoxy or trichloromethoxy if X is oxygen; with the compound of formula IX
A process for producing 1,3-butanediol, comprising contacting an ester of poly- -3-hydroxybutyrate with a source of hydrogen in the presence of a skeletal copper-based catalyst under elevated temperature conditions, wherein the term ester of poly- -3-hydroxybutyrate refers to an ester formed by reaction of poly- -3-hydroxybutyrate with an alcohol and wherein the term skeletal copper-based catalyst refers to a porous catalytic alloy based material comprising copper and aluminum.
An aircraft comprising a fuselage, wherein a width defined between lateral sides of the fuselage is significantly greater than a height (h) of the fuselage, and a tail section, with a pair of gas turbine engines mounted in said tail section and extending vertically above said fuselage, said gas turbine engines having a fan rotor, a housing with an inlet leading to the fan rotor, and a bypass door mounted upstream of said inlet to said fan rotor, wherein said bypass door is moveable from a non-bypass position to a bypass position to selectively bypass boundary layer air vertically beneath the engines, characterised in that: said inlet is configured to lead boundary layer air from atop the fuselage to the fan rotor, and said bypass door is configured to pivot vertically downwardly from an upstream end of said inlet to a bypass position at which the bypass door is spaced vertically beneath said upstream end of said inlet.
Food premix comprising: - at least one component selected from the group comprising an algae, a pseudo-cereal, an oleaginous seed, an oleaginous fruit, an aromatic or herbaceous plant, and mixtures thereof, and - powdered nacre from bivalve mollusc selected from the group comprising Pinctada Maxima, Pinctada Margaritifera or any other Pinctada, Tridacnae Gigas, and mixtures thereof, said nacre powder being mechano-structured nacre. - at least one component selected from the group comprising an algae, a pseudo-cereal, an oleaginous seed, an oleaginous fruit, an aromatic or herbaceous plant, and mixtures thereof, and - powdered nacre from bivalve mollusc selected from the group comprising Pinctada Maxima, Pinctada Margaritifera or any other Pinctada, Tridacnae Gigas, and mixtures thereof, said nacre powder being mechano-structured nacre.
Cooling device (1, 23) for a superconductor, in particular a high temperature superconductor of a synchronous machine, comprising a cooling circuit for a coolant (30, 15), the coolant liquefied in a cold head with a condenser being conducted to the superconductor to be cooled, in particular into the rotor of the synchronous machine and being returned to the condenser in a gaseous form, wherein a pressure generated by a component of the coolant (30, 15) evaporated by means of a heat source is used to convey the coolant (30, 15) from the condenser to the superconductor, characterised in that - a connection to a gas, in particular outside air, coupled by way of a thermal bridge, is used as the heat source, the temperature of the gas being higher than the boiling temperature of the coolant (30, 15). - a connection to a gas, in particular outside air, coupled by way of a thermal bridge, is used as the heat source, the temperature of the gas being higher than the boiling temperature of the coolant (30, 15).
A superabsorbent material comprising agar, carrageenan, and konjac gum, wherein the agar, the carrageenan, and the konjac gum form a porous structure without any chemical cross-linking, and wherein the superabsorbent material is prepared by a method comprising the steps of: adding agar, carrageenan, and konjac gum to water to form a mixture; heating the mixture to a temperature of between 80 oC and 100 oC until carrageenan and konjac gum are completely dissolved; allowing the mixture to cool to form a gel; freezing the gel; and drying the gel to obtain the superabsorbent material. adding agar, carrageenan, and konjac gum to water to form a mixture; heating the mixture to a temperature of between 80 oC and 100 oC until carrageenan and konjac gum are completely dissolved; allowing the mixture to cool to form a gel; freezing the gel; and drying the gel to obtain the superabsorbent material.
A coating composition comprising a metal oxide particle having a number average particle size of 1 nm to 400 nm, wherein the metal oxide particle is at least one selected from the group consisting of silicon dioxide, aluminum oxide, antimony oxide, titanium oxide, indium oxide, tin oxide, zirconium oxide, lead oxide, iron oxide, calcium silicate, magnesium oxide, niobium oxide and cerium oxide, and a polymer particle, wherein the polymer particle is an emulsion particle selected from the group consisting of an acryl emulsion, a styrene emulsion, an acrylstyrene emulsion, an acryl silicon emulsion, a silicon emulsion and a fluorine resin emulsion, and wherein a content of an aqueous-phase component in the component, represented by the following expression, is 15 mass% or less: The content of the aqueous - phase component % = ( dry mass of a filtrate obtained by filtering the component B at a molecular cutoff of 50, 000) × ( 100 - total mass of solid content) / ( mass of the filtrate - dry mass of the filtrate) × 100 / the total mass of solid content a metal oxide particle having a number average particle size of 1 nm to 400 nm, wherein the metal oxide particle is at least one selected from the group consisting of silicon dioxide, aluminum oxide, antimony oxide, titanium oxide, indium oxide, tin oxide, zirconium oxide, lead oxide, iron oxide, calcium silicate, magnesium oxide, niobium oxide and cerium oxide, and a polymer particle, wherein the polymer particle is an emulsion particle selected from the group consisting of an acryl emulsion, a styrene emulsion, an acrylstyrene emulsion, an acryl silicon emulsion, a silicon emulsion and a fluorine resin emulsion, and
A heating pad comprising: a first layer on a posterior side of the heating pad; a second layer having a continuous heating element distributed throughout the second layer, wherein the continuous heating element is capable of being selectively heated to increase the temperature of the heating pad; a third layer; and a fourth layer on an anterior side of the heating pad; characterized in that: the third layer has a plurality of cavities formed therein, each cavity holding a plurality of beads; wherein, when the heating pad is applied to a body portion of a user, the weight of the beads applies a force against the continuous heating element, the second layer, and the first layer to thereby conform them to a body portion of the user of the heating pad. a first layer on a posterior side of the heating pad; a second layer having a continuous heating element distributed throughout the second layer, wherein the continuous heating element is capable of being selectively heated to increase the temperature of the heating pad; a third layer; and a fourth layer on an anterior side of the heating pad; characterized in that: the third layer has a plurality of cavities formed therein, each cavity holding a plurality of beads; wherein, when the heating pad is applied to a body portion of a user, the weight of the beads applies a force against the continuous heating element, the second layer, and the first layer to thereby conform them to a body portion of the user of the heating pad. the third layer has a plurality of cavities formed therein, each cavity holding a plurality of beads; wherein, when the heating pad is applied to a body portion of a user, the weight of the beads applies a force against the continuous heating element, the second layer, and the first layer to thereby conform them to a body portion of the user of the heating pad.
An access control system for providing visually aided access to a building location having a locking device, the access control system comprising: a wireless device of a user comprising credentials including a virtual key to unlock the locking device; a smart lighting system; the locking device; and a building management system in communication with the wireless device, the smart lighting system and the locking device, the building management system being configured to: assign a lighting attribute (70a, 70b) to the user; and communicate the lighting attribute to the wireless device; wherein the wireless device is configured to display the lighting attribute; wherein the smart lighting system is configured to: receive, from the building management system, the lighting attribute; and display the lighting attribute to guide the user to the building location; and wherein the building management system is configured to communicate with at least the wireless device and the smart lighting system to deactivate the lighting attribute (70a, 70b) such that the lighting attribute is no longer visually displayed when the locking device has been unlocked by the user with valid credentials. a wireless device of a user comprising credentials including a virtual key to unlock the locking device; a smart lighting system; the locking device; and a building management system in communication with the wireless device, the smart lighting system and the locking device, the building management system being configured to: assign a lighting attribute (70a, 70b) to the user; and communicate the lighting attribute to the wireless device; wherein the wireless device is configured to display the lighting attribute; wherein the smart lighting system is configured to: receive, from the building management system, the lighting attribute; and display the lighting attribute to guide the user to the building location; and wherein the building management system is configured to communicate with at least the wireless device and the smart lighting system to deactivate the lighting attribute (70a, 70b) such that the lighting attribute is no longer visually displayed when the locking device has been unlocked by the user with valid credentials. assign a lighting attribute (70a, 70b) to the user; and communicate the lighting attribute to the wireless device; wherein the wireless device is configured to display the lighting attribute; wherein the smart lighting system is configured to: receive, from the building management system, the lighting attribute; and display the lighting attribute to guide the user to the building location; receive, from the building management system, the lighting attribute; and display the lighting attribute to guide the user to the building location; and wherein the building management system is configured to communicate with at least the wireless device and the smart lighting system to deactivate the lighting attribute (70a, 70b) such that the lighting attribute is no longer visually displayed when the locking device has been unlocked by the user with valid credentials.
A method of forming a passivation structure over a facet of an edge-emitting laser diode, comprising: a) depositing, in a reaction chamber, a layer (32.1) of amorphous semiconductor material to cover an exposed laser facet surface, the exposed laser facet surface being as-cleaved or post-cleaved conditioned, with the thickness of deposited semiconductor material controlled to exhibit a thickness of about 3 nm so as to create a quantum well structure; and b) processing a surface portion of the deposited semiconductor material into a dielectric material, so as to form a layer (34.1) of dielectric material over a quantum well of the quantum well structure, whereby the quantum well (32.1c) is formed by the remaining portion of said deposited semiconductor material; wherein the thickness of the formed dielectric material is controlled to be within the range of 1 - 2 nm so as to create a barrier for the quantum well structure. a) depositing, in a reaction chamber, a layer (32.1) of amorphous semiconductor material to cover an exposed laser facet surface, the exposed laser facet surface being as-cleaved or post-cleaved conditioned, with the thickness of deposited semiconductor material controlled to exhibit a thickness of about 3 nm so as to create a quantum well structure; and b) processing a surface portion of the deposited semiconductor material into a dielectric material, so as to form a layer (34.1) of dielectric material over a quantum well of the quantum well structure, whereby the quantum well (32.1c) is formed by the remaining portion of said deposited semiconductor material;
A stimulator device, comprising: at least two electrodes for stimulating tissue, wherein the at least two electrodes are programmable to be active at a given time, wherein at least one of the active electrodes comprises a source electrode and wherein at least one of the active electrodes comprises a sink electrode; at least one source circuit coupled to a compliance voltage (V +) and at least one sink circuit coupled to a reference voltage, wherein each source circuit is coupled to an associated source electrode (E X) via an associated first switch, and wherein each sink circuit is coupled to an associated sink electrode (E Y) via an associated second switch; voltage sensor circuitry for receiving along lines voltages indicative of an output voltage across each source (V PX) or sink (V NY) circuit coupled to each active source or sink electrode, and for measuring the output voltages while both the at least one source circuit and the at least one sink circuit are simultaneously active; logic circuitry, for receiving an output of the voltage sensor circuitry, for determining whether the output voltages are at suitable levels; and regulator circuitry, for receiving an output of the logic circuitry, for adjusting the compliance voltage if the determined output voltages are not at the suitable levels. at least two electrodes for stimulating tissue, wherein the at least two electrodes are programmable to be active at a given time, wherein at least one of the active electrodes comprises a source electrode and wherein at least one of the active electrodes comprises a sink electrode; at least one source circuit coupled to a compliance voltage (V +) and at least one sink circuit coupled to a reference voltage, wherein each source circuit is coupled to an associated source electrode (E X) via an associated first switch, and wherein each sink circuit is coupled to an associated sink electrode (E Y) via an associated second switch; voltage sensor circuitry for receiving along lines voltages indicative of an output voltage across each source (V PX) or sink (V NY) circuit coupled to each active source or sink electrode, and for measuring the output voltages while both the at least one source circuit and the at least one sink circuit are simultaneously active; logic circuitry, for receiving an output of the voltage sensor circuitry, for determining whether the output voltages are at suitable levels; and regulator circuitry, for receiving an output of the logic circuitry, for adjusting the compliance voltage if the determined output voltages are not at the suitable levels.
A method for manufacturing a portable data carrier with the method steps of: - making available a data carrier body with a recess for a chip; - introducing a chip into the recess; - applying a cover layer to the data carrier body; - laminating the data carrier body and the cover layer; characterized in that: the data carrier body is constructed from at least one carrier layer and a core layer and the core layer has the recess into which the chip is introduced, after introducing the chip and prior to laminating, a stabilizing means is administered into the recess of the core layer; and the stabilizing means is administered by printing technology, wherein mechanical tensions between the chip and the data carrier body introduced during lamination are compensated, by the stabilizing means surrounding the chip being activated only after conclusion of the lamination, wherein upon activation, the stabilizing means is brought from a flexible material state into an elastic material state, so that the stabilizing means is distributed flexibly before and during lamination and the chip is integrated flexibly in the data carrier body, wherein the stabilizing means has a viscosity which enables it to be applied around the chip. - making available a data carrier body with a recess for a chip; - introducing a chip into the recess; - applying a cover layer to the data carrier body; - laminating the data carrier body and the cover layer; the data carrier body is constructed from at least one carrier layer and a core layer and the core layer has the recess into which the chip is introduced, after introducing the chip and prior to laminating, a stabilizing means is administered into the recess of the core layer; and the stabilizing means is administered by printing technology, wherein mechanical tensions between the chip and the data carrier body introduced during lamination are compensated, by the stabilizing means surrounding the chip being activated only after conclusion of the lamination, wherein upon activation, the stabilizing means is brought from a flexible material state into an elastic material state, so that the stabilizing means is distributed flexibly before and during lamination and the chip is integrated flexibly in the data carrier body, wherein the stabilizing means has a viscosity which enables it to be applied around the chip.