mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: preparing a random access message at a user equipment; transmitting the random access message from the user equipment on a common resource, wherein the common resource comprises a resource known by a plurality of access nodes or a resource shared by a plurality of access nodes; and receiving multiple joint random access responses with same content, in response to the random access message, wherein the multiple joint random access responses relate to at least two of the plurality of access nodes. preparing a random access message at a user equipment; transmitting the random access message from the user equipment on a common resource, wherein the common resource comprises a resource known by a plurality of access nodes or a resource shared by a plurality of access nodes; and receiving multiple joint random access responses with same content, in response to the random access message, wherein the multiple joint random access responses relate to at least two of the plurality of access nodes.
A scroll compressor, comprising: an orbiting scroll having an orbiting wrap, and which performs an orbiting motion; and a fixed scroll having a fixed wrap to form a compression chamber of a suction chamber, an intermediate pressure chamber and a discharge chamber, by being engaged with the orbiting wrap, wherein a wrap thickness of the fixed wrap is greater than that of the orbiting wrap within a range which forms the suction chamber (Vs), characterized in that a distance between the fixed wrap and the orbiting wrap within the range is equal to an orbiting radius (r) of the orbiting scroll. an orbiting scroll having an orbiting wrap, and which performs an orbiting motion; and a fixed scroll having a fixed wrap to form a compression chamber of a suction chamber, an intermediate pressure chamber and a discharge chamber, by being engaged with the orbiting wrap, wherein a wrap thickness of the fixed wrap is greater than that of the orbiting wrap within a range which forms the suction chamber (Vs), characterized in that a distance between the fixed wrap and the orbiting wrap within the range is equal to an orbiting radius (r) of the orbiting scroll.
A method for manufacturing a nanostructured powder comprising nanocrystalline agglomerates containing active pharmaceutical ingredient in its crystalline form, said method comprising: (i) Preparing a first solution comprising API and an API solvent; (ii) Mixing the first solution with a second solution comprising an API antisolvent and optionally a stabilizing agent P1 to obtain a miscible liquid mixture containing the API solvent, the API antisolvent, and solubilized API; (iii) Evaporating said miscible liquid mixture until both the API solvent and the API antisolvent are evaporated, advantageously under vacuum; characterized in that - when the stabilizing agent P1 is present, the miscible liquid mixture has a stabilizing agent P1 to API weight ratio equal or less than 5, preferably less than 2, - the API antisolvent volume to API solvent volume ratio is at least of 4.5, preferably at least of 5, - the method does not comprise any intermediate step between steps (ii) and (iii), in particular any filtration or any other step intended to eliminate micrometric particles, and - the API nanocrystals form and/or develop during step (iii). (i) Preparing a first solution comprising API and an API solvent; (ii) Mixing the first solution with a second solution comprising an API antisolvent and optionally a stabilizing agent P1 to obtain a miscible liquid mixture containing the API solvent, the API antisolvent, and solubilized API; (iii) Evaporating said miscible liquid mixture until both the API solvent and the API antisolvent are evaporated, advantageously under vacuum; - when the stabilizing agent P1 is present, the miscible liquid mixture has a stabilizing agent P1 to API weight ratio equal or less than 5, preferably less than 2, - the API antisolvent volume to API solvent volume ratio is at least of 4.5, preferably at least of 5, - the method does not comprise any intermediate step between steps (ii) and (iii), in particular any filtration or any other step intended to eliminate micrometric particles, and - the API nanocrystals form and/or develop during step (iii).
Coffee machine, having a container for receiving coffee beans, having a grinder for grinding the coffee beans received in the container, wherein an opening is present in the container by means of which the coffee beans can be supplied from the container to the grinder, and wherein the coffee machine comprises a closure device having at least one sealing element for sealing the container against the grinder in the closed position of the closure device, by means of which the opening can be closed gas-tight, characterised in that at least one CO 2 sensor is present in the container, by means of which the CO 2 content in the container can be determined.
A method performed by a User Equipment, UE, for detecting downlink control information, the method comprising: determining a UE-specific search space of an enhanced Physical Downlink Control Channel, ePDCCH, bearing downlink control information of a component carrier; detecting the downlink control information on a physical resource corresponding to the UE-specific search space; and when performing cross carrier scheduling, generating the UE-specific search space by: L Y k + n CI + ⌊ m × N ECCE L × M set L ⌋ mod ⌊ N eCCE / L ⌋ + i, Y k represents an initial candidate position of the UE-specific search space, n CI represents a component carrier index, N eCCE represents a total number of enhanced Control Channel Elements, eCCEs, in a resource set, L represents an aggregation level, M set L represents a number of candidate positions of the component carrier at the aggregation level in the resource set, i =0,..., L- 1, and m represents a candidate set index. determining a UE-specific search space of an enhanced Physical Downlink Control Channel, ePDCCH, bearing downlink control information of a component carrier; detecting the downlink control information on a physical resource corresponding to the UE-specific search space; and when performing cross carrier scheduling, generating the UE-specific search space by: L Y k + n CI + ⌊ m × N ECCE L × M set L ⌋ mod ⌊ N eCCE / L ⌋ + i, Y k represents an initial candidate position of the UE-specific search space, n CI represents a component carrier index, N eCCE represents a total number of enhanced Control Channel Elements, eCCEs, in a resource set, L represents an aggregation level, M set L represents a number of candidate positions of the component carrier at the aggregation level in the resource set, i =0,..., L- 1, and m represents a candidate set index.
A method for use with a blood sample, the method comprising: using a microscope, acquiring three images of a microscopic imaging field of the blood sample, each of the images being acquired using respective, different imaging conditions, and the first one of the three images being acquired under violet-light brightfield imaging; and using at least one computer processor, generating an artificial color microscopic image of the microscopic imaging field, by: mapping the first one of the three images to a red channel of the artificial color microscopic image; mapping a second one of the three images to a second color channel of the artificial color microscopic image; and mapping a third one of the three images to a third color channel of the artificial color microscopic image. using a microscope, acquiring three images of a microscopic imaging field of the blood sample, each of the images being acquired using respective, different imaging conditions, and the first one of the three images being acquired under violet-light brightfield imaging; and using at least one computer processor, generating an artificial color microscopic image of the microscopic imaging field, by: mapping the first one of the three images to a red channel of the artificial color microscopic image; mapping a second one of the three images to a second color channel of the artificial color microscopic image; and mapping a third one of the three images to a third color channel of the artificial color microscopic image. mapping the first one of the three images to a red channel of the artificial color microscopic image; mapping a second one of the three images to a second color channel of the artificial color microscopic image; and mapping a third one of the three images to a third color channel of the artificial color microscopic image.
A cryogenic cooling apparatus comprising: a cooling part (200, 200') configured to cool an object to be cooled, the cooling part (200, 200') provided outside the object, and including a refrigerant container (300', 2300) for containing a circulating liquid refrigerant; a vacuum insulation part (500, 500')provided on an outer side of the cooling part (200, 200'), and including a vacuumized vacuum container (600, 2400) to vacuum insulate the cooling part (200, 200'); characterized in that the cryogenic cooling apparatus further comprises: a sensor (2820, 2820') provided on a surface of the refrigerant container (300', 2300) of the cooling part (200, 200'); a sensor port (2800, 2800') extending to a surface of the refrigerant container (300', 2300) having the sensor (2820, 2820') while passing through the vacuum container (600, 2400), the sensor port (2800, 2800') being shielded from the vacuum insulation part (500, 500'); and a purge port (2900, 2900') configured to supply an inert gas into the sensor port (2800, 2800') or apply sound pressure into the sensor port (2800, 2800'), the purge port (2900, 2900') being provided outside the vacuum container (600, 2400). a cooling part (200, 200') configured to cool an object to be cooled, the cooling part (200, 200') provided outside the object, and including a refrigerant container (300', 2300) for containing a circulating liquid refrigerant; a vacuum insulation part (500, 500')provided on an outer side of the cooling part (200, 200'), and including a vacuumized vacuum container (600, 2400) to vacuum insulate the cooling part (200, 200'); characterized in that the cryogenic cooling apparatus further comprises: a sensor (2820, 2820') provided on a surface of the refrigerant container (300', 2300) of the cooling part (200, 200'); a sensor port (2800, 2800') extending to a surface of the refrigerant container (300', 2300) having the sensor (2820, 2820') while passing through the vacuum container (600, 2400), the sensor port (2800, 2800') being shielded from the vacuum insulation part (500, 500'); and a purge port (2900, 2900') configured to supply an inert gas into the sensor port (2800, 2800') or apply sound pressure into the sensor port (2800, 2800'), the purge port (2900, 2900') being provided outside the vacuum container (600, 2400). a sensor (2820, 2820') provided on a surface of the refrigerant container (300', 2300) of the cooling part (200, 200'); a sensor port (2800, 2800') extending to a surface of the refrigerant container (300', 2300) having the sensor (2820, 2820') while passing through the vacuum container (600, 2400), the sensor port (2800, 2800') being shielded from the vacuum insulation part (500, 500'); and a purge port (2900, 2900') configured to supply an inert gas into the sensor port (2800, 2800') or apply sound pressure into the sensor port (2800, 2800'), the purge port (2900, 2900') being provided outside the vacuum container (600, 2400).
A load sensor (10; 200) detecting a magnitude of an external load applied in a direction parallel to a plane direction of a sheet-shaped quartz crystal resonator, the load sensor comprising: a quartz crystal resonator layer including the sheet-shaped quartz crystal resonator and a pair of electrode portions on a pair of surfaces opposite to each other in a thickness direction of the sheet-shaped quartz crystal resonator; and a pair of holding layers disposed to sandwich both sides of the quartz crystal resonator layer in the thickness direction and causing a displacement in substantially the same amount as the quartz crystal resonator layer when the external load is applied to the quartz crystal resonator layer, wherein the holding layers and the quartz crystal resonator layer are made of materials having substantially equivalent rates of thermal expansion, and characterized in that the pair of holding layers overlaps the pair of electrode portions in the thickness direction and recesses are formed in the pair of holding layers at portions corresponding to the pair of electrode portions. a quartz crystal resonator layer including the sheet-shaped quartz crystal resonator and a pair of electrode portions on a pair of surfaces opposite to each other in a thickness direction of the sheet-shaped quartz crystal resonator; and a pair of holding layers disposed to sandwich both sides of the quartz crystal resonator layer in the thickness direction and causing a displacement in substantially the same amount as the quartz crystal resonator layer when the external load is applied to the quartz crystal resonator layer, wherein the holding layers and the quartz crystal resonator layer are made of materials having substantially equivalent rates of thermal expansion, and characterized in that the pair of holding layers overlaps the pair of electrode portions in the thickness direction and recesses are formed in the pair of holding layers at portions corresponding to the pair of electrode portions.
A baler (1, 11, 12) for compressing compressible loose material the baler comprising: - a press channel with a fill in opening for the loose material, - a press plate that is movably arranged in the press channel over a predetermined press path length (Lges) and that includes a press surface that is in contact with the material to be compressed, - plural hydraulic cylinders (H11, H12..., H21, H22...) that are coupled with electrohydraulic drive units - to generate a press force, - to advance the press plate over the predetermined press path length (Lges) to introduce the press force into the filled in material, and - to return the press plate into a starting position, - a control and regulation system configured to control and maintain a spatial orientation of the press surface during a forward movement of the press plate over the entire press path length (Lges), characterized by - a first group including hydraulic cylinders (H11, H12...) connected in parallel and individually controllable for generating and transmitting the press force onto an intermediary plate that is arranged jointly movable with the press plate in the press direction, - a second group of hydraulic cylinders (H21, H22...) that are connected in parallel and individually controllable to generate and transmits the press force upon the press plate so that the press plate is movable by the hydraulic cylinders (H21, H22...) relative to the intermediary plate. - a press channel with a fill in opening for the loose material, - a press plate that is movably arranged in the press channel over a predetermined press path length (Lges) and that includes a press surface that is in contact with the material to be compressed, - plural hydraulic cylinders (H11, H12..., H21, H22...) that are coupled with electrohydraulic drive units - to generate a press force, - to advance the press plate over the predetermined press path length (Lges) to introduce the press force into the filled in material, and - to return the press plate into a starting position, - to generate a press force, - to advance the press plate over the predetermined press path length (Lges) to introduce the press force into the filled in material, and - to return the press plate into a starting position, - a control and regulation system configured to control and maintain a spatial orientation of the press surface during a forward movement of the press plate over the entire press path length (Lges), - a first group including hydraulic cylinders (H11, H12...) connected in parallel and individually controllable for generating and transmitting the press force onto an intermediary plate that is arranged jointly movable with the press plate in the press direction, - a second group of hydraulic cylinders (H21, H22...) that are connected in parallel and individually controllable to generate and transmits the press force upon the press plate so that the press plate is movable by the hydraulic cylinders (H21, H22...) relative to the intermediary plate.
A microdosing device (30; 40; 50; 60; 70; 70'; 80) for producing a microdosing volume of a fluid sample in the form of a microfree jet, i.e. a fluid volume in the microliter range or submicroliter range, which leaves the outlet opening of a fluid channel as a jet or free drop, comprising a fluid chamber (31; 41; 51; 61; 71; 81), a fluid channel (32; 42; 52; 62; 72; 72'; 82) which connects the interior of the fluid chamber with an exterior space and which serves to receive the microdosing volume of a fluid sample a displacement element (33; 43; 53; 63; 73; 83) adapted to deflect between a first position and a second position and to displace a microvolume of the fluid chamber, the microdosing device comprising a shape memory material actuator (35; 45; 55; 65; 75; 85) arranged to deflect the displacement element, and electrical control means to control the shape memory material actuator, characterized in that the microdosing device is arranged to move the displacement element (33; 43; 53; 63; 73; 83) in a pulse-like manner from the first to the second position, and the displacement of the microvolume from the fluid chamber causes the discharge of the microdosing volume in the form of a microfree jet into the exterior space, and the electrical control device is arranged to activate the shape memory material actuator with a very short voltage or current pulse, the time span of which is between 1 ms and 100 ms.
An electrostatic chuck comprising: a surface layer activated by a voltage in an electrode to form an electric charge to electrostatically clamp a substrate to the electrostatic chuck, the surface layer including a plurality of polymer protrusions (101, 201, 314, 414) and a charge control layer (102, 202) to which the plurality of polymer protrusions (101, 201, 314, 414) adhere, the plurality of polymer protrusions (101, 201, 314, 414) extending to a height above portions of the charge control layer (102, 202) surrounding the plurality of polymer protrusions (101, 201, 314, 414) to support the substrate upon the plurality of polymer protrusions (101, 201, 314, 414) during electrostatic clamping of the substrate, the electrostatic chuck being characterized in that the charge control layer (102, 202) is a polymer charge control layer and comprises a surface resistivity of between about 10 8 ohms per square to about 10 11 ohms per square.
A semiconductor device, comprising: - a substrate of semiconductor material, - a dielectric layer on the substrate, - an electrically conductive contact pad arranged in the dielectric layer, - a hot plate arranged in the dielectric layer, - a recess of the substrate at the location of the hot plate, and - an integrated circuit, which operates the hot plate, characterized in that - the recess is formed by a plurality of openings, - an electrically conductive layer is arranged on a side of the substrate opposite the dielectric layer, - the substrate is provided with a via hole above the contact pad, and - an electrically conductive material connecting the electrically conductive layer with the contact pad is applied in the via hole. - a substrate of semiconductor material, - a dielectric layer on the substrate, - an electrically conductive contact pad arranged in the dielectric layer, - a hot plate arranged in the dielectric layer, - a recess of the substrate at the location of the hot plate, and - an integrated circuit, which operates the hot plate, - the recess is formed by a plurality of openings, - an electrically conductive layer is arranged on a side of the substrate opposite the dielectric layer, - the substrate is provided with a via hole above the contact pad, and - an electrically conductive material connecting the electrically conductive layer with the contact pad is applied in the via hole.
A method of making a coated cutting tool, the method comprises chemical vapor deposition of a coating comprising an inner layer of TiN and a subsequent layer of TiCN on a substrate, wherein the substrate is made of cemented carbide composed of hard constituents in a metallic binder and wherein the metallic binder comprises 60 to 90 wt% Ni, characterized in that the TiN layer is deposited on the cemented carbide substrate in two subsequent steps at a temperature of about 850-900°C and a pressure of about 300-600 mbar, preferably 300-500 mbar: a first TiN deposition of TiN-1, followed by a second TiN deposition of TiN-2, the TiN-1 deposition is performed in a gas comprising 1-1.5 vol% TiCl 4 and H 2 and N 2, wherein the volume ratio H 2 /N 2 is 0.05-0.18, preferably 0.09-0.14, and wherein the gas preferably comprises 0.5-1.5 vol% HCl, more preferably 0.8-1.0 vol% HCl, and the TiN-2 deposition is performed in a gas comprising 2-3 vol% TiCl 4 and H 2 and N 2, wherein the volume ratio H 2 /N 2 is 0.8-2.5, preferably 0.9-1.7, more preferably 0.9-1.2. the TiN-1 deposition is performed in a gas comprising 1-1.5 vol% TiCl 4 and H 2 and N 2, wherein the volume ratio H 2 /N 2 is 0.05-0.18, preferably 0.09-0.14, and wherein the gas preferably comprises 0.5-1.5 vol% HCl, more preferably 0.8-1.0 vol% HCl, and the TiN-2 deposition is performed in a gas comprising 2-3 vol% TiCl 4 and H 2 and N 2, wherein the volume ratio H 2 /N 2 is 0.8-2.5, preferably 0.9-1.7, more preferably 0.9-1.2.
Submarine, comprising pivotable rudder blades (8, 8 II, 8 III, 8 IV) which are arranged on the boat body of the submarine, wherein the outer side of the boat body and the boat-facing side (10 I) of at least one of the rudder blades (8 IV) are arranged relative to one another and designed in such a way that the rudder blade (8 IV) adjoins the outer side of the boat body in a clearance-free manner at least in pivoting regions which are adjacent to the neutral position of the rudder blade (8 IV), wherein the outer side of the boat body, in each case at least in the regions over which the rudder blades (8 IV) are pivotable, is designed as a cutout of a rotation surface, and wherein the sides of the rudder blades (8, 8 III) that face the outer side of the boat body have, at least in parts of the pivoting regions, a curvature which corresponds to a curvature of the outer side of the boat body, characterized in that the rudder blade (8 IV) is curved in in a portion on the incident-flow side of the rudder axis A with a first radius of curvature R" and is curved in on the outflow side of the rudder axis A with a second radius of curvature R"', wherein the radius of curvature R"' is greater than the radius of curvature R".
A heated interior trim part of a vehicle, including a translucent cover layer (10, 36) having a front surface and a back surface; a heating layer comprising a heating element extending in a plane of the heating layer, the heating layer located on the back surface side of the cover layer (10, 36); characterized by a lighting module associated with the heating layer and adapted for lighting the heating layer so that at least part of the heating layer is visible at the front surface side of the cover layer (10, 36).