mhurhangee/ep-ind-claims huggingface dataset:
Process for the preparation of a chiral triol of formula I wherein R 1 is hydrogen or halogen and denotes either a dashed bond (a) or a wedged bond (b) a) b). comprising the asymmetric hydrogenation of a ketone compound of formula IIa wherein R 1 is hydrogen or halogen and R 2 is with hydrogen in the presence of an iridium spiro-pyridylamidophosphine catalyst (Ir-SpiroPAP catalyst) of the formula IIIa or IIIb, or enantiomers thereof, wherein R 4a, R 4b, R 4c and R 4d independently of each other are hydrogen or C 1-6 -alkyl; the dotted ring signifies an aromatic ring when Q 1 is nitrogen and Q 2 is carbon and the dotted ring signifies a cycloalkane ring wherein Q 1 and Q 2 are sulfur; X 1 is either a coordinated ligand or a counter anion selected from halogen, C 1-6 -alkoxy, tetrahalogeno borate, hexahalogenoborate, tetrakis(3,5-bis(trihalogeno-C 1- 6-alkyl)phenyl)borate, acetylacetonate, hexahalogenophosphate, p-tolylsulfonate (OTs) or trihalogeno methanesulfonate and Z is phenyl, optionally substituted by one or more groups selected from C 1-8 -alkyl, C 1-8 -halogenalkyl or phenyl; C 3-8 -cycloalkyl, optionally substituted by one or more C 1-8 -alkyl groups or di- C 1-8 -alkyl phosphinyl. R 1 is hydrogen or halogen and denotes either a dashed bond (a) or a wedged bond (b) a) b). comprising the asymmetric hydrogenation of a ketone compound of formula IIa wherein R 1 is hydrogen or halogen and R 2 is R 1 is hydrogen or halogen and R 2 is with hydrogen in the presence of an iridium spiro-pyridylamidophosphine catalyst (Ir-SpiroPAP catalyst) of the formula IIIa or IIIb, or enantiomers thereof, wherein R 4a, R 4b, R 4c and R 4d independently of each other are hydrogen or C 1-6 -alkyl; the dotted ring signifies an aromatic ring when Q 1 is nitrogen and Q 2 is carbon and the dotted ring signifies a cycloalkane ring wherein Q 1 and Q 2 are sulfur; X 1 is either a coordinated ligand or a counter anion selected from halogen, C 1-6 -alkoxy, tetrahalogeno borate, hexahalogenoborate, tetrakis(3,5-bis(trihalogeno-C 1- 6-alkyl)phenyl)borate, acetylacetonate, hexahalogenophosphate, p-tolylsulfonate (OTs) or trihalogeno methanesulfonate and Z is phenyl, optionally substituted by one or more groups selected from C 1-8 -alkyl, C 1-8 -halogenalkyl or phenyl; C 3-8 -cycloalkyl, optionally substituted by one or more C 1-8 -alkyl groups or di- C 1-8 -alkyl phosphinyl. R 4a, R 4b, R 4c and R 4d independently of each other are hydrogen or C 1-6 -alkyl; the dotted ring signifies an aromatic ring when Q 1 is nitrogen and Q 2 is carbon and the dotted ring signifies a cycloalkane ring wherein Q 1 and Q 2 are sulfur; X 1 is either a coordinated ligand or a counter anion selected from halogen, C 1-6 -alkoxy, tetrahalogeno borate, hexahalogenoborate, tetrakis(3,5-bis(trihalogeno-C 1- 6-alkyl)phenyl)borate, acetylacetonate, hexahalogenophosphate, p-tolylsulfonate (OTs) or trihalogeno methanesulfonate and Z is phenyl, optionally substituted by one or more groups selected from C 1-8 -alkyl, C 1-8 -halogenalkyl or phenyl; C 3-8 -cycloalkyl, optionally substituted by one or more C 1-8 -alkyl groups or di- C 1-8 -alkyl phosphinyl.
A medical device configured to dispense a hemostatic agent using a pressurized fluid, the device comprising: a body having an input opening for receiving the pressurized fluid and an output opening for delivering the pressurized fluid; a handle defining a lumen, wherein the lumen is configured to receive a container containing the pressurized fluid; and at least one aperture fluidly connecting the lumen to an atmosphere external of the device and configured to vent fluid from the lumen to the atmosphere external of the device, and wherein the at least one aperture is formed in a sidewall of the handle, characterized in that a membrane covering each aperture of the at least one aperture, and wherein the membrane is configured to rupture when a pressure of the pressurized fluid within the lumen exceeds a threshold. a body having an input opening for receiving the pressurized fluid and an output opening for delivering the pressurized fluid; a handle defining a lumen, wherein the lumen is configured to receive a container containing the pressurized fluid; and at least one aperture fluidly connecting the lumen to an atmosphere external of the device and configured to vent fluid from the lumen to the atmosphere external of the device, and wherein the at least one aperture is formed in a sidewall of the handle,
A method of filling containers comprising the steps of: providing the container to be filled with a fluid composition, the container having an opening; providing a container filling assembly, the container filling assembly comprising a mixing chamber; introducing two or more materials, into the mixing chamber, where the materials are combined to form the fluid composition; characterized in that the mixing chamber is in fluid communication with a temporary storage chamber, and the container filling assembly further comprises a dispensing chamber in fluid communication with the temporary storage chamber, and a dispensing nozzle, the dispensing nozzle adjacent the opening of the container; and wherein the method further comprises the steps of: transferring the fluid composition to the temporary storage chamber at a first rate of flow; transferring the fluid composition from the temporary storage chamber into the dispensing chamber and dispensing the fluid composition through the dispensing nozzle at a second rate of flow, wherein the second rate of flow is independently variable of the first rate of flow. providing the container to be filled with a fluid composition, the container having an opening; providing a container filling assembly, the container filling assembly comprising a mixing chamber; introducing two or more materials, into the mixing chamber, where the materials are combined to form the fluid composition; characterized in that the mixing chamber is in fluid communication with a temporary storage chamber, and the container filling assembly further comprises a dispensing chamber in fluid communication with the temporary storage chamber, and a dispensing nozzle, the dispensing nozzle adjacent the opening of the container; and wherein the method further comprises the steps of: transferring the fluid composition to the temporary storage chamber at a first rate of flow; transferring the fluid composition from the temporary storage chamber into the dispensing chamber and dispensing the fluid composition through the dispensing nozzle at a second rate of flow, wherein the second rate of flow is independently variable of the first rate of flow. transferring the fluid composition to the temporary storage chamber at a first rate of flow; transferring the fluid composition from the temporary storage chamber into the dispensing chamber and dispensing the fluid composition through the dispensing nozzle at a second rate of flow, wherein the second rate of flow is independently variable of the first rate of flow.
An electronic assembly comprising: a semiconductor device having conductive pads on a device first side, a metallic region on a device second side opposite the first side, and a metallic region comprising a metallic central region on the device first side.; a lead frame for providing separate terminals (52, 54, 56, 58) that are electrically and mechanically connected to the conductive pads; a first heat sink comprising a first component having a mating side, a portion of the mating side directly bonded with the metallic region of the semiconductor device and having an opposite side opposite the mating side; and a circuit board having an opening, the semiconductor device and the lead frame extending at or outward toward a board first side of the circuit board, a board second side of the circuit board opposite the first side, a plurality of board conductive pads being on the board first side of the circuit board to align with the corresponding terminals (52, 54, 56, 58) of the lead frame for electrical connection therewith. a semiconductor device having conductive pads on a device first side, a metallic region on a device second side opposite the first side, and a metallic region comprising a metallic central region on the device first side.; a lead frame for providing separate terminals (52, 54, 56, 58) that are electrically and mechanically connected to the conductive pads; a first heat sink comprising a first component having a mating side, a portion of the mating side directly bonded with the metallic region of the semiconductor device and having an opposite side opposite the mating side; and a circuit board having an opening, the semiconductor device and the lead frame extending at or outward toward a board first side of the circuit board, a board second side of the circuit board opposite the first side, a plurality of board conductive pads being on the board first side of the circuit board to align with the corresponding terminals (52, 54, 56, 58) of the lead frame for electrical connection therewith.
A method of quantifying a lean tissue water concentration comprising the steps of acquiring an image as a water-fat separated magnetic resonance image, wherein the acquired image comprises a water image and a fat image each comprising a plurality of volume elements, providing a calibrated fat image, providing a soft tissue mask defining areas of soft tissue in the acquired image, and defining a region of interest of the acquired image characterized in that the method further comprises the steps of calculating a lean tissue volume by multiplying, for each volume element in the region of interest, the soft tissue mask with the volume (V vox) of each volume element and the result of one minus the calibrated fat image, and summarizing the products of said multiplications for all volume elements in the region of interest providing a calibrated water image, and calculating a lean tissue water concentration by multiplying, for each volume element in the acquired image, the soft tissue mask with the calibrated water image and the volume (V vox) of each volume element, determining a sum of the products of said multiplications for all volume elements in the region of interest, and divide said sum with said calculated lean tissue volume. acquiring an image as a water-fat separated magnetic resonance image, wherein the acquired image comprises a water image and a fat image each comprising a plurality of volume elements, providing a calibrated fat image, providing a soft tissue mask defining areas of soft tissue in the acquired image, and defining a region of interest of the acquired image characterized in that the method further comprises the steps of calculating a lean tissue volume by multiplying, for each volume element in the region of interest, the soft tissue mask with the volume (V vox) of each volume element and the result of one minus the calibrated fat image, and summarizing the products of said multiplications for all volume elements in the region of interest providing a calibrated water image, and calculating a lean tissue water concentration by multiplying, for each volume element in the acquired image, the soft tissue mask with the calibrated water image and the volume (V vox) of each volume element, determining a sum of the products of said multiplications for all volume elements in the region of interest, and divide said sum with said calculated lean tissue volume.
Motor vehicle door latch with a locking mechanism (2, 3) fundamentally comprising a catch and a pawl, and with a spring-impinged storage element, which maintains the pawl in an elevated storage position, elevated in relation to the catch, during an opening process of the locking mechanism (2, 3) until the catch is opened beyond any ratchet positions (2a, 2b), until the catch is opened, wherein the spring-impinged storage element is formed as a leg spring, which is anchored with its one leg held stationary in the latch housing and maintains the pawl in the elevated position with its other leg in the storage position until the catch is opened beyond any ratchet positions (2a, 2b), characterized in that the other latch leg is equipped with a stop maintaining the pawl in its storage position and the pawl has a protrusion for interaction with the stop, wherein the protrusion glides along the other latch leg during the opening process of the locking mechanism (2, 3) and overlaps the stop.
A rechargeable lithium battery (40; 50) comprising an airtight container (41; 51), electrodes (42; 52, 52',....) immersed in an electrolytic solution, said electrodes being spaced apart by means of one or more separators, electrical contacts (54, 54') connected to the electrodes and a means (10; 20; 32; 43; 53) for sorbing harmful substances, characterized in that said means for sorbing harmful substances is in the form of a multilayer polymeric sheet formed of an inner layer (12; 22; 33) of a polymeric material containing particles of one or more getter materials for the sorption of said harmful substances, and at least one external protective layer (13; 23, 23'; 34) of a polymeric material impermeable to the electrolyte, wherein all the polymeric materials are permeable to said harmful substances and wherein the weight percentage of said particles of one or more getter materials in said inner layer is lower than 50%.
A microneedle patch formed from hydrophilic polymeric materials, comprising an array of microneedles which are 100-1000μm in length and have the ability to convert from hard solid state to hydrogel state by absorbing water and a plate where the microneedles are standing and aligned on, wherein the microneedles formed from the polymeric materials are: a) structured in the form of a cross-linked network with microcrystalline domains as the cross-linking junctions; and b) water-swellable but water-insoluble. a) structured in the form of a cross-linked network with microcrystalline domains as the cross-linking junctions; and b) water-swellable but water-insoluble.
A method for scheduling transmissions from an access node, the method comprising: determining locations for a plurality of small cells (204, 206, 208) within an access node signal area, wherein the determined locations are relative to an edge of the access node signal area and a location of the access node; selecting, based on the determined locations for the plurality of small cells (204, 206, 208), a scheduling algorithm for the access node comprising one of a low proportional fairness scheduling algorithm, a medium proportional fairness scheduling algorithm, and a high proportional fairness scheduling algorithm; and transmitting data from the access node to a plurality of wireless devices based on the selected scheduling algorithm. determining locations for a plurality of small cells (204, 206, 208) within an access node signal area, wherein the determined locations are relative to an edge of the access node signal area and a location of the access node; selecting, based on the determined locations for the plurality of small cells (204, 206, 208), a scheduling algorithm for the access node comprising one of a low proportional fairness scheduling algorithm, a medium proportional fairness scheduling algorithm, and a high proportional fairness scheduling algorithm; and transmitting data from the access node to a plurality of wireless devices based on the selected scheduling algorithm.
A microwave power splitter/combiner, having three ports (21, 22, 23), comprises a multi-layer laminate including a substrate carrying a resistive layer defining a resistor; the multi-layer laminate comprising: a first conductive layer defining conductive pads (29, 30); a dielectric membrane (33, 60) covering the first conductive layer; a second conductive layer covering the dielectric membrane (33,60), the second conductive layer defining at least part of a microwave circuit (25,26) that interconnects the three ports; and electrically conductive vias (31,32) extending through the dielectric membrane (33,60) between the conductive pads (29,30) and the second conductive layer to electrically connect two of the three ports (21, 22, 23) across the resistor; and the first conductive layer is carried by the resistive layer, and the resistive layer comprises a nickel-phosphorus alloy. a first conductive layer defining conductive pads (29, 30); a dielectric membrane (33, 60) covering the first conductive layer; a second conductive layer covering the dielectric membrane (33,60), the second conductive layer defining at least part of a microwave circuit (25,26) that interconnects the three ports; and electrically conductive vias (31,32) extending through the dielectric membrane (33,60) between the conductive pads (29,30) and the second conductive layer to electrically connect two of the three ports (21, 22, 23) across the resistor; and the first conductive layer is carried by the resistive layer, and the resistive layer comprises a nickel-phosphorus alloy.
A method of manufacturing an electrode of a solar cell, comprising the steps of: forming an emitter layer on a substrate; forming an anti-reflective coating film on the emitter layer; removing a partial region of the anti-reflective coating film to form an opening; forming a first conductive layer directly connected with the emitter layer in the opening of the anti-reflective coating film; and forming a second conductive layer on the first conductive layer, wherein the second conductive layer is formed by printing a conductive paste composition on the first conductive layer, wherein the conductive paste composition includes 60 to 95 wt% of metal powder, 0 to 0.5 wt% of glass frit, 1 to 20 wt% of a binder and 1 to 20 wt% of a solvent, wherein the glass frit have an average particle diameter (D 50) of 0.5 to 10 μm, wherein the metal particles of the second conductive layer are included in the first conductive layer in an amount of 2 to 10 parts by weight, based on 100 parts by weight of the metal particles of the first conductive layer, wherein the metal powder includes metal particles having an average particle diameter (D 50) of 0.5 to 4 μm, selected from the group consisting of Ag, Au, Al, Ni, Pt, Cu, and alloys thereof. forming an emitter layer on a substrate; forming an anti-reflective coating film on the emitter layer; removing a partial region of the anti-reflective coating film to form an opening; forming a first conductive layer directly connected with the emitter layer in the opening of the anti-reflective coating film; and forming a second conductive layer on the first conductive layer, wherein the second conductive layer is formed by printing a conductive paste composition on the first conductive layer, wherein the conductive paste composition includes 60 to 95 wt% of metal powder, 0 to 0.5 wt% of glass frit, 1 to 20 wt% of a binder and 1 to 20 wt% of a solvent, wherein the glass frit have an average particle diameter (D 50) of 0.5 to 10 μm, wherein the metal particles of the second conductive layer are included in the first conductive layer in an amount of 2 to 10 parts by weight, based on 100 parts by weight of the metal particles of the first conductive layer, wherein the metal powder includes metal particles having an average particle diameter (D 50) of 0.5 to 4 μm, selected from the group consisting of Ag, Au, Al, Ni, Pt, Cu, and alloys thereof.
A portable device for rehabilitating an upper limb (2, 3) of a user, the portable device comprising a support which is movable over a surface, the portable device comprising means for moving the support over the surface, the portable device further comprising: - a first support structure for supporting a forearm of the user; - monitoring means for monitoring the movement of the support; wherein the portable device further comprises: - a second support structure; and wherein: - the first support structure is coupled to the second support structure by means of a first joint having one rotational degree of freedom coinciding with a direction of the rotational joint of elbow, the second support structure being coupled to the support by means of a second joint having three rotational degrees of freedom; and wherein the portable device further comprises - force sensing means (31, 32) for sensing a force exercised by an arm of the user on the support; - angle sensor means for measuring an angle of inclination of the first support structure with respect to the second support structure; and - processing means for detecting movement intention of the user based on the force measured by the force sensing means (31, 32) and on the angle of the first support structure. - a first support structure for supporting a forearm of the user; - monitoring means for monitoring the movement of the support; wherein the portable device further comprises: - a second support structure; and wherein: - the first support structure is coupled to the second support structure by means of a first joint having one rotational degree of freedom coinciding with a direction of the rotational joint of elbow, the second support structure being coupled to the support by means of a second joint having three rotational degrees of freedom; - a second support structure; - the first support structure is coupled to the second support structure by means of a first joint having one rotational degree of freedom coinciding with a direction of the rotational joint of elbow, the second support structure being coupled to the support by means of a second joint having three rotational degrees of freedom; - force sensing means (31, 32) for sensing a force exercised by an arm of the user on the support; - angle sensor means for measuring an angle of inclination of the first support structure with respect to the second support structure; and - processing means for detecting movement intention of the user based on the force measured by the force sensing means (31, 32) and on the angle of the first support structure.