mhurhangee/ep-ind-claims huggingface dataset:
An exothermic massage implement, comprising: a heat conducting vessel having an inner chamber surrounded by a wall with an inner surface and an outer surface; a reactant comprising a powder mixture including reactant particles contained within a liquid-permeable pouch positioned inside the inner chamber of the vessel; the wall comprising at least one aperture in the wall through which the liquid-permeable pouch can be inserted into the inner chamber of the vessel; a cap including a valve, wherein the aperture can be covered by the cap; and wherein the reactant is an exothermic reactant adapted to generate an exothermic reaction upon contact with a liquid activator permeating the liquid-permeable pouch thereby, combining the reactant and the activator to generate the exothermic reaction that releases heat, wherein the wall is heated with the released heat at a substantially constant elevated temperature for a duration of time. a heat conducting vessel having an inner chamber surrounded by a wall with an inner surface and an outer surface; a reactant comprising a powder mixture including reactant particles contained within a liquid-permeable pouch positioned inside the inner chamber of the vessel; the wall comprising at least one aperture in the wall through which the liquid-permeable pouch can be inserted into the inner chamber of the vessel; a cap including a valve, wherein the aperture can be covered by the cap; and wherein the reactant is an exothermic reactant adapted to generate an exothermic reaction upon contact with a liquid activator permeating the liquid-permeable pouch thereby, combining the reactant and the activator to generate the exothermic reaction that releases heat, wherein the wall is heated with the released heat at a substantially constant elevated temperature for a duration of time.
A method for obtaining a hardware activation code, HWAC, for a baseband node (300a, 300b, 300N), the method being performed by a network planner node, the method comprising: performing mutual authentication between a trusted execution environment, TEE, of the network planner node and a TEE (340a, 340b, 340N) of the baseband node (300a, 300b, 300N); providing, towards the TEE (340a, 340b, 340N) of the baseband node (300a, 300b, 300N), a request for HWAC calculation data based on a network resource need; obtaining, from the TEE (340a, 340b, 340N) of the baseband node (300a, 300b, 300N), the requested HWAC calculation data; obtaining the HWAC by inputting the obtained HWAC calculation data and a quantification of the network resource need to a HWAC calculation function on the TEE of the network planner node, where the HWAC is given as output from the HWAC calculation function; and providing, towards the TEE (340a, 340b, 340N) of the baseband node (300a, 300b, 300N), the HWAC. performing mutual authentication between a trusted execution environment, TEE, of the network planner node and a TEE (340a, 340b, 340N) of the baseband node (300a, 300b, 300N); providing, towards the TEE (340a, 340b, 340N) of the baseband node (300a, 300b, 300N), a request for HWAC calculation data based on a network resource need; obtaining, from the TEE (340a, 340b, 340N) of the baseband node (300a, 300b, 300N), the requested HWAC calculation data; obtaining the HWAC by inputting the obtained HWAC calculation data and a quantification of the network resource need to a HWAC calculation function on the TEE of the network planner node, where the HWAC is given as output from the HWAC calculation function; and providing, towards the TEE (340a, 340b, 340N) of the baseband node (300a, 300b, 300N), the HWAC.
Method for characterising an aerosol, wherein the aerosol to be characterised contains volatile suspended particles, and wherein initially an unadulterated sample which permits a direct statement relating to harmful suspended particles is obtained with the following partial method steps to be performed in any sequence: - heating the aerosol to be characterised to a temperature at which the volatile suspended particles evaporate, on a heating section, - diluting the aerosol to be characterised with a dilution gas in a dilution unit connected upstream or downstream of the heating section, and wherein solid suspended particles possibly present in the previously heated and diluted aerosol are subsequently measured. - heating the aerosol to be characterised to a temperature at which the volatile suspended particles evaporate, on a heating section, - diluting the aerosol to be characterised with a dilution gas in a dilution unit connected upstream or downstream of the heating section,
A light emitting diode, comprising: a light emitting region (22, 26, 27), a wire bond pad as a top ohmic contact on a top surface of said light emitting region (22, 26, 27); a lenticular surface arranged on other portions of the top surface of said light emitting region (22, 26, 27) than the wire bond pad and surrounding the wire bond pad; a metal mirror layer arranged on a bottom surface of said light emitting region (22, 26, 27) as a bottom ohmic contact to the light emitting region (22, 26, 27); an opening in the metal mirror layer adjacent to the light emitting region (22, 26, 27) and positioned directly under the wire bond pad, while portions of the bottom surface directly under the lenticular surface are covered with the metal mirror layer; and a reflective metal in the opening as a non-ohmic contact area at the bottom surface of said light emitting region (22, 26, 27) that does not form an ohmic contact with said light emitting region (22, 26, 27). a light emitting region (22, 26, 27), a wire bond pad as a top ohmic contact on a top surface of said light emitting region (22, 26, 27); a lenticular surface arranged on other portions of the top surface of said light emitting region (22, 26, 27) than the wire bond pad and surrounding the wire bond pad; a metal mirror layer arranged on a bottom surface of said light emitting region (22, 26, 27) as a bottom ohmic contact to the light emitting region (22, 26, 27); an opening in the metal mirror layer adjacent to the light emitting region (22, 26, 27) and positioned directly under the wire bond pad, while portions of the bottom surface directly under the lenticular surface are covered with the metal mirror layer; and a reflective metal in the opening as a non-ohmic contact area at the bottom surface of said light emitting region (22, 26, 27) that does not form an ohmic contact with said light emitting region (22, 26, 27).
A process for the preparation of coating dispersions for use in the paper industry by co-grinding natural calcium carbonate and precipitated calcium carbonate, characterized in that powdery GCC is co-ground with a slurry containing from 5 to 70% by weight of PCC to obtain a particle size distribution of the calcium carbonate with at least 90% by weight of smaller than 5 μm, at least 70% by weight of smaller than 2 μm, and at least 20% by weight of smaller than 1 μm, with a weight average particle size within a range of from 0.7 to 3 μm.
A multi-function cooling and thermo-sensitive rack for microbiology experiment, characterized in that the multi-function cooling and thermo-sensitive rack comprising horizontal bars having a plurality of semicircular positioning dents, a base, connectors, and a lateral frame, wherein the lateral frame is a U-shaped frame, wherein the base has positioning holes, wherein the lateral frame and the base are dimensionally identical to each other, wherein the lateral frame and the base are connected through the connectors, and wherein the horizontal bars are horizontally mounted on arms of the U-shaped frame of the lateral frame, and the horizontal bars and/or the base are thermochromic.
A multi-lumen catheter comprising a proximal end and a distal end said catheter further comprising; - a first lumen for a first fluid, said first lumen having a first proximal opening and a first distal opening for receiving a first fluid, - a second lumen for a second fluid, said second lumen having a second proximal opening and a second distal opening for delivering a second fluid, characterised by - a third lumen having a third proximal opening and a third distal opening for returning the first fluid, wherein the first distal opening is arranged with respect to the second distal opening so that when in use at least part of the first fluid which enters the first lumen through the first distal opening has passed across the second distal opening such that the first fluid which enters the first lumen comprise at least a part of the second fluid, and wherein the third distal opening is arranged downstream with respect to the first distal opening. - a first lumen for a first fluid, said first lumen having a first proximal opening and a first distal opening for receiving a first fluid, - a second lumen for a second fluid, said second lumen having a second proximal opening and a second distal opening for delivering a second fluid, characterised by - a third lumen having a third proximal opening and a third distal opening for returning the first fluid, wherein the first distal opening is arranged with respect to the second distal opening so that when in use at least part of the first fluid which enters the first lumen through the first distal opening has passed across the second distal opening such that the first fluid which enters the first lumen comprise at least a part of the second fluid, and wherein the third distal opening is arranged downstream with respect to the first distal opening.
Device for the portioned dispensing of a liquid, preferably therapeutic, medium, having first and second housing parts (1, 2) which are arranged to be longitudinally movable relative to one another on a common longitudinal axis between an unactuated rest position and an actuated end position, a piston arranged axially fixed to the first housing part, a pressure plunger arranged axially fixed to the second housing part, which is arranged in longitudinal alignment with the piston and is composed of a closed end face and a plunger casing, a dosing cavity which is enclosed by an inner wall of the piston and into which the pressure plunger can be lowered by actuation of the device, and a liquid channel which extends from the dosing cavity and is in fluid communication with a valve-controlled discharge opening in the first housing part, characterized by an inner sealing section formed on the inner wall of the piston, against which, when the pressure plunger is partially or completely lowered into the dosing cavity, an outer sealing section formed on the outside of the plunger casing bears against it without any gap, wherein the actuation of the device is divided into individual phases, wherein a first phase is the still unactuated rest or initial state, in which there is no contact and therefore no mutual sealing between the piston and the pressure plunger, therapeutic fluid being able to flow unhindered from a fluid supply in a storage space surrounding the dosing cavity into the dosing cavity and fill the latter in the first phase, in a second and third phase, with the pressure plunger partially lowered into the dosing cavity and with the pressure plunger fully lowered, the inner sealing section rests against the opposite outer sealing section without any gaps, so that the dosing cavity is separated from the fluid supply of the surrounding storage space from the second phase onwards and, in the third phase, pressure is applied to the medium thus separated, causing it to be pressed toward the discharge opening and to leave it. first and second housing parts (1, 2) which are arranged to be longitudinally movable relative to one another on a common longitudinal axis between an unactuated rest position and an actuated end position, a piston arranged axially fixed to the first housing part, a pressure plunger arranged axially fixed to the second housing part, which is arranged in longitudinal alignment with the piston and is composed of a closed end face and a plunger casing, a dosing cavity which is enclosed by an inner wall of the piston and into which the pressure plunger can be lowered by actuation of the device, and a liquid channel which extends from the dosing cavity and is in fluid communication with a valve-controlled discharge opening in the first housing part,
A packaging container for a silicone hydrogel contact lens, the packaging container comprising a shell, wherein the shell comprises: a cavity having a drop-shaped perimeter, and a flange having a flat upper surface extending around the drop-shaped perimeter of the cavity in an upper surface plane, wherein the cavity comprises a bowl portion including an at least partially spherical section for accommodating the contact lens, characterized in that the cavity further comprises a chamfer portion surrounding the bowl portion and being arranged between the bowl portion and the drop-shaped perimeter of the cavity, wherein the chamfer portion includes a tapered outlet section forming a tip towards the flange to facilitate removal of the contact lens from the cavity, wherein a transition between the at least partially spherical section of the bowl portion and a section of the chamfer portion other than the outlet section has an edge, and wherein a radius of the at least partially spherical section of the bowl portion is in the range of 7 mm and 9.5 mm. a cavity having a drop-shaped perimeter, and a flange having a flat upper surface extending around the drop-shaped perimeter of the cavity in an upper surface plane, wherein the cavity comprises a bowl portion including an at least partially spherical section for accommodating the contact lens, characterized in that the cavity further comprises a chamfer portion surrounding the bowl portion and being arranged between the bowl portion and the drop-shaped perimeter of the cavity, wherein the chamfer portion includes a tapered outlet section forming a tip towards the flange to facilitate removal of the contact lens from the cavity, wherein a transition between the at least partially spherical section of the bowl portion and a section of the chamfer portion other than the outlet section has an edge, and wherein a radius of the at least partially spherical section of the bowl portion is in the range of 7 mm and 9.5 mm. a chamfer portion surrounding the bowl portion and being arranged between the bowl portion and the drop-shaped perimeter of the cavity, wherein the chamfer portion includes a tapered outlet section forming a tip towards the flange to facilitate removal of the contact lens from the cavity, wherein a transition between the at least partially spherical section of the bowl portion and a section of the chamfer portion other than the outlet section has an edge, and wherein a radius of the at least partially spherical section of the bowl portion is in the range of 7 mm and 9.5 mm.
A nickel-chromium alloy with high resistance to oxidation and carburisation and high creep rupture strength and creep resistance, formed of 0.4 to 0.6% carbon 28 to 33% chromium 15 to 25% iron 2 to 6% aluminium up to 2% silicon up to 2% manganese up to 1.5% niobium up to 1.5% tantalum up to 1.0% tungsten up to 1.0% titanium up to 1.0% zirconium up to 0.5% yttrium up to 0.5% cerium up to 0.5% molybdenum up to 0.1% nitrogen the rest being formed by nickel inclusive of melting-related impurities. 0.4 to 0.6% carbon 28 to 33% chromium 15 to 25% iron 2 to 6% aluminium up to 2% silicon up to 2% manganese up to 1.5% niobium up to 1.5% tantalum up to 1.0% tungsten up to 1.0% titanium up to 1.0% zirconium up to 0.5% yttrium up to 0.5% cerium up to 0.5% molybdenum up to 0.1% nitrogen the rest being formed by nickel inclusive of melting-related impurities.
A method for a base station receiving uplink control information from a user equipment, the method comprising: transmitting allocation information to the user equipment, wherein the allocation information allocates to the user equipment an information resource, a first reference signal, RS, resource used during the transmission of acknowledgment/non-acknowledgement, ACK/NACK, information only, and a plurality of second RS resources used during the transmission of ACK/NACK information and scheduling request, SR, simultaneously, wherein the first RS resource is only allocated to the user equipment and the plurality of second RS resources are shared between the user equipment and other user equipments; receiving the ACK/NACK information and RS from the user equipment through the information resource and a certain RS resource among the first RS resource and the plurality of second RS resources; when the RS is transmitted through the first RS resource, determining that information on the the SR is not transmitted; when the RS is transmitted through a first resource, which is one of the plurality of second RS resources, determining that the SR is solicited from the user equipment; and when the RS is transmitted through a second resource, which is one of the plurality of the second RS resources and different from the first resource, determining that the SR is unsolicited from the user equipment. transmitting allocation information to the user equipment, wherein the allocation information allocates to the user equipment an information resource, a first reference signal, RS, resource used during the transmission of acknowledgment/non-acknowledgement, ACK/NACK, information only, and a plurality of second RS resources used during the transmission of ACK/NACK information and scheduling request, SR, simultaneously, wherein the first RS resource is only allocated to the user equipment and the plurality of second RS resources are shared between the user equipment and other user equipments; receiving the ACK/NACK information and RS from the user equipment through the information resource and a certain RS resource among the first RS resource and the plurality of second RS resources; when the RS is transmitted through the first RS resource, determining that information on the the SR is not transmitted; when the RS is transmitted through a first resource, which is one of the plurality of second RS resources, determining that the SR is solicited from the user equipment; and when the RS is transmitted through a second resource, which is one of the plurality of the second RS resources and different from the first resource, determining that the SR is unsolicited from the user equipment.
Method for adjusting the properties of a photonic circuit such that they fit with expected properties, the photonic circuit including a waveguide which comprises a light propagation region, the method including a step of modifying the refractive index of at least one zone of said region, said step being implemented by mean of an ion implantation in the at least one zone, the method being characterized in that it comprises, before the step of modifying the refractive index of the at least one zone, a step of removing an encapsulation of the at least one zone, said encapsulation being made in a second encapsulating material different from a first encapsulating material that covers the remainder of said region, and, after the step of modifying the refractive index of the at least one zone, a step of encapsulating the at least one zone with said second encapsulating material.
An assembly for dermatome comprising: a blade assembly having a first side and a second side, the blade assembly including: a blade edge, characterized in that the blade assembly further includes: a blade guard including: a base configured to face the second side of the blade assembly; a fence extending from the base in a first direction, the fence configured to cover the blade edge; and at least one locator extending from the base in the first direction and configured to orient the blade guard with respect to the blade assembly. a blade assembly having a first side and a second side, the blade assembly including: a blade edge, characterized in that the blade assembly further includes: a blade guard including: a base configured to face the second side of the blade assembly; a fence extending from the base in a first direction, the fence configured to cover the blade edge; and at least one locator extending from the base in the first direction and configured to orient the blade guard with respect to the blade assembly. a blade edge, characterized in that the blade assembly further includes: a blade guard including: a base configured to face the second side of the blade assembly; a fence extending from the base in a first direction, the fence configured to cover the blade edge; and at least one locator extending from the base in the first direction and configured to orient the blade guard with respect to the blade assembly. a blade guard including: a base configured to face the second side of the blade assembly; a fence extending from the base in a first direction, the fence configured to cover the blade edge; and at least one locator extending from the base in the first direction and configured to orient the blade guard with respect to the blade assembly. a base configured to face the second side of the blade assembly; a fence extending from the base in a first direction, the fence configured to cover the blade edge; and at least one locator extending from the base in the first direction and configured to orient the blade guard with respect to the blade assembly.
A control apparatus of a hybrid vehicle including an engine, a motor/generator used for vehicle propulsion and power generation, a clutch interleaved between the engine and the motor/generator for enabling and disabling torque transmission by engagement and disengagement of the clutch and an acceleration demand detection device configured to detect a driving force demand from a driver, the control apparatus comprising: a controller configured to: selectively switch between an EV mode, in which the vehicle travels by only a driving force produced by the motor/generator with the clutch disengaged when the driving force demand is less than or equal to an engine-stop criterion value, and an HEV mode, in which the vehicle travels by at least a driving force produced by the engine with the clutch engaged when the driving force demand is greater than the engine-stop criterion value; set a delay time based on driving force demand change rate; decrease the delay time as the driving force demand change rate decreases; and execute a transition from the HEV mode to the EV mode when the driving force demand becomes less than or equal to the engine-stop criterion value during the HEV mode and after the delay time has expired, where the acceleration demand detection device comprises an accelerator opening position sensor configured to detect an accelerator opening as the driving force demand; and the driving force demand change rate is an accelerator-pedal return speed detected by the accelerator opening sensor. selectively switch between an EV mode, in which the vehicle travels by only a driving force produced by the motor/generator with the clutch disengaged when the driving force demand is less than or equal to an engine-stop criterion value, and an HEV mode, in which the vehicle travels by at least a driving force produced by the engine with the clutch engaged when the driving force demand is greater than the engine-stop criterion value; set a delay time based on driving force demand change rate; decrease the delay time as the driving force demand change rate decreases; and execute a transition from the HEV mode to the EV mode when the driving force demand becomes less than or equal to the engine-stop criterion value during the HEV mode and after the delay time has expired, where the acceleration demand detection device comprises an accelerator opening position sensor configured to detect an accelerator opening as the driving force demand; and the driving force demand change rate is an accelerator-pedal return speed detected by the accelerator opening sensor.