mhurhangee/patent-ind-claim-en huggingface dataset:
A method of forming a hydrophobic coating on a substrate, comprising 1) applying an alloy powder to the substrate through a cold spray process, which powder is, at least in part, an amorphous alloy powder; 2) obtaining a coating on the substrate which is, at least in part, amorphous, wherein the parameters of said cold spray process are controlled so that the temperature occurring during said cold spray process does not exceed the crystallization temperature of said alloy; 3) heating the amorphous coating to a temperature between the glass transition and crystallization temperatures of the alloy to form a superplastic forming region in at least a portion of said amorphous coating; and 4) superplastic forming the amorphous coating. 1) applying an alloy powder to the substrate through a cold spray process, which powder is, at least in part, an amorphous alloy powder; 2) obtaining a coating on the substrate which is, at least in part, amorphous, wherein the parameters of said cold spray process are controlled so that the temperature occurring during said cold spray process does not exceed the crystallization temperature of said alloy; 3) heating the amorphous coating to a temperature between the glass transition and crystallization temperatures of the alloy to form a superplastic forming region in at least a portion of said amorphous coating; and 4) superplastic forming the amorphous coating.
A medical system comprising a catheter configured to be inserted into a body part of a living subject, and including: a deflectable element extending along a longitudinal axis from a proximal portion to a distal end; an expandable distal end assembly disposed proximate the distal end of the deflectable element , and comprising a plurality of electrodes disposed about the longitudinal axis, and configured to expand from a collapsed form to an expanded deployed form; a proximal electrode disposed proximate the distal end of the deflectable element adjacent to the expandable distal end assembly , and extending circumferentially around the deflectable element, and including irrigation holes through which irrigation fluid is provided thereto; an annular hollow defined between the proximal electrode and the deflectable element ; and an irrigation tube disposed in the deflectable element, coupled to the annular hollow to transfer irrigation fluid into the annular hollow , and configured to be in fluid communication with the irrigation holes of the proximal electrode via the annular hollow . a deflectable element extending along a longitudinal axis from a proximal portion to a distal end; an expandable distal end assembly disposed proximate the distal end of the deflectable element , and comprising a plurality of electrodes disposed about the longitudinal axis, and configured to expand from a collapsed form to an expanded deployed form; a proximal electrode disposed proximate the distal end of the deflectable element adjacent to the expandable distal end assembly , and extending circumferentially around the deflectable element, and including irrigation holes through which irrigation fluid is provided thereto; an annular hollow defined between the proximal electrode and the deflectable element ; and an irrigation tube disposed in the deflectable element, coupled to the annular hollow to transfer irrigation fluid into the annular hollow , and configured to be in fluid communication with the irrigation holes of the proximal electrode via the annular hollow .
A method for subtracting background light from an exposure value of a first pixel in an imaging array, said first pixel receiving a reflection of a spot from a scenery illuminated by a periodically pulsed pattern of distinct spots, said periodically pulsed pattern comprising in alternation an illuminated phase and a non-illuminated phase, the method comprising: - accumulating in said first pixel a charge in proportion to a first quantity of incident light, received in said first pixel while detecting said spot during a predetermined amount of time; and - decreasing said charge in proportion to a second quantity of incident light received during said predetermined amount of time in absence of said spot; wherein said second quantity of incident light comprises light received, during said accumulating, in a second pixel of said pixel array, said second pixel being at a sufficient distance from said first pixel so as not to be illuminated by said spot. - accumulating in said first pixel a charge in proportion to a first quantity of incident light, received in said first pixel while detecting said spot during a predetermined amount of time; and - decreasing said charge in proportion to a second quantity of incident light received during said predetermined amount of time in absence of said spot;
A method performed by a base station for improving a communication quality of the base station, comprising: receiving (S510) a plurality of voice packets from a terminal; determining (S520) whether a packet loss occurs based on a packet data convergence protocol sequence number, PDCP SN, of the received voice packets; determining (S623) whether a size of a lost packet is smaller than a predetermined threshold value, in case that the packet loss has occurred; identifying (S725) a type of the lost packet based on an interval between the received packets, wherein the type of the lost packet is one of a sound packet or a silence packet; and generating (S530) compensation information on a comfort noise packet based on the type of the lost packet, in case that the size of the lost packet is smaller than the threshold value, wherein the comfort noise packet corresponds to the PDCP SN of the lost packet, and wherein the comfort noise packet is generated by an adaptive multi rate, AMR, codec or an AMR wideband, AMR-WB, codec. receiving (S510) a plurality of voice packets from a terminal; determining (S520) whether a packet loss occurs based on a packet data convergence protocol sequence number, PDCP SN, of the received voice packets; determining (S623) whether a size of a lost packet is smaller than a predetermined threshold value, in case that the packet loss has occurred; identifying (S725) a type of the lost packet based on an interval between the received packets, wherein the type of the lost packet is one of a sound packet or a silence packet; and generating (S530) compensation information on a comfort noise packet based on the type of the lost packet, in case that the size of the lost packet is smaller than the threshold value, wherein the comfort noise packet corresponds to the PDCP SN of the lost packet, and wherein the comfort noise packet is generated by an adaptive multi rate, AMR, codec or an AMR wideband, AMR-WB, codec.
A powdery material mixing degree measurement device (M) configured to measure a mixing degree of mixed powdery materials containing at least two types of powdery materials and subsequently deliver the mixed powdery materials toward a compression molding machine configured to compression mold the mixed powdery materials, the powdery material mixing degree measurement device comprising: a supplier (19, M5) configured to be fed with the mixed powdery materials; a discharger (M6) configured to discharge to feed, with the mixed powdery materials, a filling device (X) configured to fill a die bore of the compression molding machine with a powdery material; a rotator (M2) including a plurality of movable portions (M21) configured to capture the mixed powdery materials fed through the supplier (19, M5) and transfer the mixed powdery materials to the discharger (M6); and a sensor (S3) configured to measure a mixing degree of the mixed powdery materials captured by the movable portions (M21) of the rotator (M2), characterized by a sensor (S6) configured to detect whether or not the mixed powdery materials in the supplier (19, M5) has an upper surface level (L1) kept within a constant target range; and a controller (C) configured to adjust rotational speed of the rotator (M2) such that the upper surface level (L1) of the powdery materials in the supplier (19, M5) is kept within the constant target range. a supplier (19, M5) configured to be fed with the mixed powdery materials; a discharger (M6) configured to discharge to feed, with the mixed powdery materials, a filling device (X) configured to fill a die bore of the compression molding machine with a powdery material; a rotator (M2) including a plurality of movable portions (M21) configured to capture the mixed powdery materials fed through the supplier (19, M5) and transfer the mixed powdery materials to the discharger (M6); and a sensor (S3) configured to measure a mixing degree of the mixed powdery materials captured by the movable portions (M21) of the rotator (M2), characterized by a sensor (S6) configured to detect whether or not the mixed powdery materials in the supplier (19, M5) has an upper surface level (L1) kept within a constant target range; and a controller (C) configured to adjust rotational speed of the rotator (M2) such that the upper surface level (L1) of the powdery materials in the supplier (19, M5) is kept within the constant target range.
A method of forming a cast heat exchanger plate comprising: forming at least one hot core plate that is configured for defining internal passages of a one piece heat exchanger plate, the at least one hot core plate including at least one first set of interlocking features configured to assemble the at least one hot core plate to another hot core plate ; forming at least two cold core plates that are configured for defining external fin portions of the heat exchanger plate, each of the at least two cold plates including at least one second set of interlocking features; assembling a core assembly wherein the at least one hot core plate is disposed between the at least two cold core plates and the at least two cold core plates are interlocked to each other; and forming a wax pattern with the core assembly (50... 96); forming an external shell over the wax pattern ; removing the wax pattern to form a space between the core assembly (50... 96) and the external shell ; filling the space with a molten material and curing the molten material; removing the external shell ; and removing the core assembly (50... 96). forming at least one hot core plate that is configured for defining internal passages of a one piece heat exchanger plate, the at least one hot core plate including at least one first set of interlocking features configured to assemble the at least one hot core plate to another hot core plate ; forming at least two cold core plates that are configured for defining external fin portions of the heat exchanger plate, each of the at least two cold plates including at least one second set of interlocking features; assembling a core assembly wherein the at least one hot core plate is disposed between the at least two cold core plates and the at least two cold core plates are interlocked to each other; and forming a wax pattern with the core assembly (50... 96); forming an external shell over the wax pattern ; removing the wax pattern to form a space between the core assembly (50... 96) and the external shell ; filling the space with a molten material and curing the molten material; removing the external shell ; and removing the core assembly (50... 96).
Method for producing at least one gear wheel, in particular a helical gear wheel, wherein the gear wheel is produced from a sintered gear-wheel blank which in the toothing region is pressed so as to be oversized, wherein the gear-wheel blank has two mutually opposite end sides and one circumference, the method comprising the following method steps: - clamping the gear-wheel blank in a clamping means , - compressing the gear-wheel blank in the region of oversizing by engaging at least one revolving tool having a counter-toothing which engages in the toothing of the gear-wheel blank , wherein the gear-wheel blank during compression thereof at both end sides is radially clamped across the circumference by the clamping means , characterized in that each individual tooth of the toothing of the gear-wheel blank is supported by the clamping means substantially across the entire tooth height. - clamping the gear-wheel blank in a clamping means , - compressing the gear-wheel blank in the region of oversizing by engaging at least one revolving tool having a counter-toothing which engages in the toothing of the gear-wheel blank ,
A drive device for a vehicle, comprising: a motor case configured to house a motor ; a first case configured to house a gear unit that is mechanically connected with the motor ; and a second case configured to house an electric power conversion unit that is electrically connected with the motor , characterized in that the first case and the second case are fastened to the motor case by a plurality of fastening members; and the plurality of fastening members includes at least one common fastening member that concurrently fastens the first case and the second case to the motor case . a motor case configured to house a motor ; a first case configured to house a gear unit that is mechanically connected with the motor ; and a second case configured to house an electric power conversion unit that is electrically connected with the motor , characterized in that the first case and the second case are fastened to the motor case by a plurality of fastening members; and the plurality of fastening members includes at least one common fastening member that concurrently fastens the first case and the second case to the motor case .
Hydraulic system comprising at least one hydraulic unit having at least one flow path, an hydraulic actuator provided for influencing a hydraulic flow through said flow path and at least one sensor device , and a control device for controlling the hydraulic actuator , characterized in that said at least one sensor device comprises a storage means provided for containing information specifying the hydraulic unit , said information specifying said hydraulic unit comprises a unit identifier and/or at least one parameter specifying said hydraulic unit and that said control device is configured to receive the information stored in the storage means of said sensor device and to set up a control of said hydraulic actuator based on the received information specifying the hydraulic unit . at least one hydraulic unit having at least one flow path, an hydraulic actuator provided for influencing a hydraulic flow through said flow path and at least one sensor device , and a control device for controlling the hydraulic actuator , characterized in that said at least one sensor device comprises a storage means provided for containing information specifying the hydraulic unit , said information specifying said hydraulic unit comprises a unit identifier and/or at least one parameter specifying said hydraulic unit and that said control device is configured to receive the information stored in the storage means of said sensor device and to set up a control of said hydraulic actuator based on the received information specifying the hydraulic unit .
A method of amplifying an optical signal, in particular an optical data signal , transmitted from a first location (A) to a second location (B) via a first transmission link , wherein said optical signal is amplified by means of a transmitter side remote optically pumped amplifier (ROPA) comprising a gain medium , wherein the gain medium of said transmitter side ROPA is pumped by means of transmitter side pump power provided from said first location (A), wherein at least a part of said transmitter side pump power is provided by means of light supplied from said first location (A) to said transmitter side ROPA via a portion of a second transmission link provided for transmitting optical signals from said second location (B) to said first location (A), wherein said at least part of said transmitter side pump power is transferred from said second transmission link to said first transmission link by means of a connection comprising a connection link which is connected at one end with the first transmission link and at the other end with the second transmission link , wherein said connection link is connected to said first and second transmission links , by means of couplers, in particular WDM couplers , and wherein a splitter is provided in said connection link , said splitter allowing for splitting part of the light passing said connection link from said second transmission link to said first transmission link and feeding it back into the second transmission link , wherein said method further comprises a step of amplifying an optical signal, in particular an optical data signal transmitted from the second location (B) to the first location (A) via said second transmission link , wherein said step of amplifying said optical signal comprises amplifying said optical signal by means of a receiver side ROPA provided in said second transmission link , wherein said receiver side ROPA comprises a gain medium , wherein the gain medium of said receiver side ROPA is pumped by means of receiver side pump power provided from said first location (A), wherein at least part of the receiver side pump power is power split off from the light passing said connection link from said second transmission link to said first transmission link and fed back into the second transmission link , wherein additional pump power for pumping said gain medium of said transmitter side ROPA is supplied from the first location (A) to said transmitter side ROPA via said first transmission link , wherein the amount of said additional pump power supplied from the first location (A) to said transmitter side ROPA via said first transmission link is smaller than the amount of said transmitter side pump power provided by means of light via said portion of said second transmission link .
An antioxidant composition comprising: (a) an isolate or extract comprising about 0.01% to about 20% mangiferin; and at least one of: (b) ferulic acid; (c) Vitamin C; (d) baicalin and ferulic acid; and (e) ferulic acid and Vitamin C, wherein said isolate or extract comprising mangiferin, and one or more of ferulic acid, Vitamin C, baicalin and ferulic acid, and ferulic acid and Vitamin C are present in amounts sufficient to produce synergistic antioxidant activity. (a) an isolate or extract comprising about 0.01% to about 20% mangiferin; and at least one of: (b) ferulic acid; (c) Vitamin C; (d) baicalin and ferulic acid; and (e) ferulic acid and Vitamin C,
A print cassette , comprising: a roll of a first tape ; a supply spool rotatable about a rotation axis (L5); a second tape wound around the supply spool and used for printing or protecting of the first tape , characterized in that the print cassette further comprises an output gear to output a driving force outside, and the supply spool , the output gear , and the roll are disposed in order of the supply spool , the output gear , and the roll in an axial direction of the rotation axis (L5) of the supply spool . a roll of a first tape ; a supply spool rotatable about a rotation axis (L5); a second tape wound around the supply spool and used for printing or protecting of the first tape , characterized in that the print cassette further comprises an output gear to output a driving force outside, and the supply spool , the output gear , and the roll are disposed in order of the supply spool , the output gear , and the roll in an axial direction of the rotation axis (L5) of the supply spool .
Tool magazine for the provision of tools for a machine tool, wherein the tool magazine has a plurality of pick-up positions for tools and a first tool can be removed from or inserted into a first pick-up position along a removal direction , wherein the tool magazine has at least one further pick-up position in removal direction ahead of or behind the first pick-up position , which further pick-up position is intended for picking up a further tool, wherein at least one transfer device is provided which performs at least part of the transport of the tools in the tool magazine and/or to an interface and the transfer device is rotatable about an axis of rotation (A) and the transfer device has a carrier rotatable about an axis of rotation (A), characterised in that at the ends of the carrier respectively at least one gripper is provided for picking up tools and the transfer device has three or more grippers , wherein a first gripper is provided to carry a tool to be mounted, a second gripper is provided to carry the tool to be removed and at least one further gripper is provided as temporary storage for a tool resting initially on a pick-up position which prevents the insertion and removal of a tool.
A conveyor comprising a first conveyor section and a second conveyor section movable with respect to said first conveyor section between a deployed state and a non-deployed state, characterized by the the conveyor further comprising: at least one skirting movable into and out of a deployed state in which said at least one skirting extends along the second conveyor section; at least one skirting support coupled to said at least one skirting and movable into and out of a deployed state in which said at least one skirting support holds said at least one skirting in its deployed state; and actuating means for moving said at least one skirting support wherein said at least one skirting is deformable or foldable. at least one skirting movable into and out of a deployed state in which said at least one skirting extends along the second conveyor section; at least one skirting support coupled to said at least one skirting and movable into and out of a deployed state in which said at least one skirting support holds said at least one skirting in its deployed state; and actuating means for moving said at least one skirting support wherein said at least one skirting is deformable or foldable.
A method of safely directing a beam from a wireless power-supplying device towards at least one power-receiving device, said method comprising: (a) scanning a field of view for detection of at least one sign having at least one asymmetric property, associated with at least one power-receiving device; (b) performing a sign-matching algorithm which maps imaging data arising from said at least one sign onto at least one representation of a sign obtained from a database containing representations of signs associated with power-receiving devices, said signs having at least one asymmetric property; (c) using said mapping to determine whether the beam directed from a scan pose at which said imaging data was obtained, did not undergo a reflection, such that a direct line of sight between said power-receiving device and said wireless power-supplying device is indicated; and (d) if it was determined in step (c) that the beam did not undergo a reflection, performing at least one of (i) directing at least one beam towards said at least one power receiving device and (ii) modifying an operational parameter of said wireless power-supplying device. (a) scanning a field of view for detection of at least one sign having at least one asymmetric property, associated with at least one power-receiving device; (b) performing a sign-matching algorithm which maps imaging data arising from said at least one sign onto at least one representation of a sign obtained from a database containing representations of signs associated with power-receiving devices, said signs having at least one asymmetric property; (c) using said mapping to determine whether the beam directed from a scan pose at which said imaging data was obtained, did not undergo a reflection, such that a direct line of sight between said power-receiving device and said wireless power-supplying device is indicated; and (d) if it was determined in step (c) that the beam did not undergo a reflection, performing at least one of (i) directing at least one beam towards said at least one power receiving device and (ii) modifying an operational parameter of said wireless power-supplying device.