mhurhangee/patent-ind-claim-en huggingface dataset:
A process for preparing a protein containing fermented plant based product from a defatted oleaginous plant, characterized in that it comprises the following steps: a) Forming a suspension comprising the defatted oleaginous plant in an aqueous solvent; b) Enzymatically treating the suspension obtained in step a), with the following enzymes: - at least one protein glutaminase for the solubilisation in said aqueous solvent of proteins contained in the defatted oleaginous plant, - optionally one transglutaminase, - at least one glycosidase, said enzymes being used successively or simultaneously; c) Homogenizing at a pressure higher than 30 bar to obtain a protein containing plant based product d) Optionally recovering the protein containing plant based product obtained in step c); e) Heating the plant based product to a temperature from 80°C to 140°C for 2 seconds to 10 min; and f) Inoculating the plant based product with at least one starter culture to obtain an inoculated the plant based product and fermenting the plant based product until reaching a pH from 3.0 to 5.5, preferably 4.5 to 5.0 to obtain a protein containing fermented plant based product a) Forming a suspension comprising the defatted oleaginous plant in an aqueous solvent; b) Enzymatically treating the suspension obtained in step a), with the following enzymes: - at least one protein glutaminase for the solubilisation in said aqueous solvent of proteins contained in the defatted oleaginous plant, - optionally one transglutaminase, - at least one glycosidase, said enzymes being used successively or simultaneously; - at least one protein glutaminase for the solubilisation in said aqueous solvent of proteins contained in the defatted oleaginous plant, - optionally one transglutaminase, - at least one glycosidase, c) Homogenizing at a pressure higher than 30 bar to obtain a protein containing plant based product d) Optionally recovering the protein containing plant based product obtained in step c); e) Heating the plant based product to a temperature from 80°C to 140°C for 2 seconds to 10 min; and f) Inoculating the plant based product with at least one starter culture to obtain an inoculated the plant based product and fermenting the plant based product until reaching a pH from 3.0 to 5.5, preferably 4.5 to 5.0 to obtain a protein containing fermented plant based product
A composition comprising cerdulatinib, or a pharmaceutically acceptable salt thereof, and venetoclax, or a pharmaceutically acceptable salt thereof, and at least one pharmaceutically acceptable carrier or excipient, for use in treating a Non-Hodgkin's Lymphoma (NHL) in a patient in need thereof, wherein said use comprises administering to the patient an effective amount of said composition.
A device for treating regurgitation through a gap (G) in a valve in a heart, the heart having an atrium fluidically coupled to a ventricle by the valve, the valve defining a valve plane including at least two leaflets (LF) extending from an annulus defining an anterior and posterior annulus, the at least two leaflets (LF) coapting along a line of coaptation (C), the device comprising: a frame sized to fit within a heart chamber, the frame including: an upper portion , a lower portion , and a middle portion , a pair of arms moveably coupled to the frame ; and a compliant membrane covering the frame and at least a portion of the pair of arms , the upper portion of the frame being configured, in use, to rest above the valve plane such that upper portion contacts or rests upon the anterior and posterior annulus, and the lower portion of the frame being configured to capture the leaflets (LF) and close the gap (G) between the leaflets (LF) as well as to keep the device in position within the valve. a frame sized to fit within a heart chamber, the frame including: an upper portion , a lower portion , and a middle portion , an upper portion , a lower portion , and a middle portion , a pair of arms moveably coupled to the frame ; and a compliant membrane covering the frame and at least a portion of the pair of arms , the upper portion of the frame being configured, in use, to rest above the valve plane such that upper portion contacts or rests upon the anterior and posterior annulus, and the lower portion of the frame being configured to capture the leaflets (LF) and close the gap (G) between the leaflets (LF) as well as to keep the device in position within the valve.
A pipe isolation device , comprising: a control bar head ; a first sealing head having a first seal element and a first sliding engagement, the first sliding engagement permitting the first sealing head to slide relative to the control bar head along a first fixed path and traverse a right angle to gain access to an interior space of a pipe; a second sealing head having a second seal element and a second sliding engagement , the second sliding engagement permitting the second sliding head to slide relative to the first sealing head along a second fixed path and traverse the right angle to gain access to an interior space of the pipe; characterised in that the first sliding engagement slidably connects the first sealing head to the control bar head ; and the second sliding engagement slidably connects the second sealing head to the first sealing head . a control bar head ; a first sealing head having a first seal element and a first sliding engagement, the first sliding engagement permitting the first sealing head to slide relative to the control bar head along a first fixed path and traverse a right angle to gain access to an interior space of a pipe; a second sealing head having a second seal element and a second sliding engagement , the second sliding engagement permitting the second sliding head to slide relative to the first sealing head along a second fixed path and traverse the right angle to gain access to an interior space of the pipe; characterised in that the first sliding engagement slidably connects the first sealing head to the control bar head ; and the second sliding engagement slidably connects the second sealing head to the first sealing head .
An electronic device operable to receive power from external equipment having a resistance, the electronic device comprising: a connector having a pair of power line contacts and first and second data line contacts, wherein the first and second data line contacts are configured to be electrically coupled to opposing sides of the resistance of the external equipment when the connector is in contact with the external equipment ; and control circuitry configured to measure the resistance of the external equipment across the opposing sides of the resistance of the external equipment while the connector is in contact with the external equipment , characterized in that the control circuitry is further configured to generate a modulation signal received by the external equipment by modulating a source signal using a modulation scheme to convey information indicative of capabilities of the electronic device to the external equipment while the connector is in contact with the external equipment . a connector having a pair of power line contacts and first and second data line contacts, wherein the first and second data line contacts are configured to be electrically coupled to opposing sides of the resistance of the external equipment when the connector is in contact with the external equipment ; and control circuitry configured to measure the resistance of the external equipment across the opposing sides of the resistance of the external equipment while the connector is in contact with the external equipment , characterized in that the control circuitry is further configured to generate a modulation signal received by the external equipment by modulating a source signal using a modulation scheme to convey information indicative of capabilities of the electronic device to the external equipment while the connector is in contact with the external equipment .
A medical imaging system for reconstructing a shape of at least a portion of a hollow organ , the system comprising a processor configured to: define a parametric model representing the shape of the portion of the hollow organ ; access measured data describing locations within the hollow organ ; reconstruct the shape of the portion of the hollow organ by fitting the parametric model to the measured data subject to at least one constraint computed from statistical analysis of a dataset of other instances of the hollow organ . define a parametric model representing the shape of the portion of the hollow organ ; access measured data describing locations within the hollow organ ; reconstruct the shape of the portion of the hollow organ by fitting the parametric model to the measured data subject to at least one constraint computed from statistical analysis of a dataset of other instances of the hollow organ .
A method of fabricating an oscillating heat pipe (10;110;210;310) via layer-by-layer additive manufacturing, the method comprising: creating an electronic file defining the oscillating heat pipe in layers; building the oscillating heat pipe with an additive manufacturing process in which the oscillating heat pipe is built layer-by-layer, wherein the oscillating heat pipe comprises: a body (16;116); an array (18;118) of channels (20;120) that define a continuous loop through which a fluid flows, the array of channels being disposed in the body, wherein an inner surface of a channel of the array of channels comprises a flow directing feature (30A;30B) that is configured to promote a first direction of flow of the fluid through the channel and that is configured to provide resistance against a second direction of flow that is opposite the first direction of flow; an evaporator portion that includes a first end of the array of channels; and a condenser portion that includes a second end of the array of channels, wherein the array of channels is defined by cavities in the body as the body is formed with layer-by-layer additive manufacturing. creating an electronic file defining the oscillating heat pipe in layers; building the oscillating heat pipe with an additive manufacturing process in which the oscillating heat pipe is built layer-by-layer, wherein the oscillating heat pipe comprises: a body (16;116); an array (18;118) of channels (20;120) that define a continuous loop through which a fluid flows, the array of channels being disposed in the body, wherein an inner surface of a channel of the array of channels comprises a flow directing feature (30A;30B) that is configured to promote a first direction of flow of the fluid through the channel and that is configured to provide resistance against a second direction of flow that is opposite the first direction of flow; an evaporator portion that includes a first end of the array of channels; and a condenser portion that includes a second end of the array of channels, a body (16;116); an array (18;118) of channels (20;120) that define a continuous loop through which a fluid flows, the array of channels being disposed in the body, wherein an inner surface of a channel of the array of channels comprises a flow directing feature (30A;30B) that is configured to promote a first direction of flow of the fluid through the channel and that is configured to provide resistance against a second direction of flow that is opposite the first direction of flow; an evaporator portion that includes a first end of the array of channels; and a condenser portion that includes a second end of the array of channels, wherein the array of channels is defined by cavities in the body as the body is formed with layer-by-layer additive manufacturing.
A method of installing an underfloor heating comprising the steps of: • manufacturing an intermediate product comprising a, in particular rectangular, metal support plate , on one side of which a metal pipe system for conducting a medium is fixed by at least one heat-conducting element , characterised in that the method comprises the following step: • filling an intermediate space formed by the pipe system with poured screed . • manufacturing an intermediate product comprising a, in particular rectangular, metal support plate , on one side of which a metal pipe system for conducting a medium is fixed by at least one heat-conducting element , • filling an intermediate space formed by the pipe system with poured screed .
A calculating method using a zero-knowledge proof-friendly one-way function, performed by a computing device, the calculating method comprising: calculating (S11) a first intermediate bit stream by inputting an input bit stream of the one-way function to an augmented matrix; calculating (S12) a second intermediate bit stream by dividing the first intermediate bit stream into a predetermined number of bit streams and inputting each of the predetermined number of divided bit streams to a substitution-box, S-box; outputting (S13) an output bit stream of the one-way function by inputting the second intermediate bit stream to a reduced matrix; and performing a zero-knowledge proof-based digital signature by using the input bit stream and the output bit stream of the one-way function, wherein each of a length of the input bit stream and a length of the output bit stream of the one-way function is N, being a natural number, each of a length of the first intermediate bit stream and a length of the second intermediate bit stream is M, M being a natural number, where M is a multiple of N, and a length of a divided bit stream input to the S-box is L, L being a natural number, where L is a factor of M, characterized in that the augmented matrix comprises a binary matrix having a size of M×N, and the reduced matrix comprises a binary matrix having a size of N×M. calculating (S11) a first intermediate bit stream by inputting an input bit stream of the one-way function to an augmented matrix; calculating (S12) a second intermediate bit stream by dividing the first intermediate bit stream into a predetermined number of bit streams and inputting each of the predetermined number of divided bit streams to a substitution-box, S-box; outputting (S13) an output bit stream of the one-way function by inputting the second intermediate bit stream to a reduced matrix; and performing a zero-knowledge proof-based digital signature by using the input bit stream and the output bit stream of the one-way function, wherein each of a length of the input bit stream and a length of the output bit stream of the one-way function is N, being a natural number, each of a length of the first intermediate bit stream and a length of the second intermediate bit stream is M, M being a natural number, where M is a multiple of N, and a length of a divided bit stream input to the S-box is L, L being a natural number, where L is a factor of M, characterized in that the augmented matrix comprises a binary matrix having a size of M×N, and the reduced matrix comprises a binary matrix having a size of N×M.
An electronic device comprising: a circuit board ; an electric component disposed on a face of the circuit board ; an electromagnetic shielding member mounted so as to cover at least a portion of the electric component on the face of the circuit board ; an opening formed in the shielding member so as to expose a portion of the electric component to an outside of the shielding member ; and a heat transfer member including at least a portion of a flange portion , attached to an outer face of the shielding member to close the opening and connected to the portion of the electric component , a support member disposed to face at least a portion of the circuit board , wherein the heat transfer member forms an electromagnetic shielding structure together with the shielding member and is fixed in a compressed state between the electric component and the support member , wherein the electronic device further comprises: an accommodation groove formed in the support member ; a heat radiation member disposed in the accommodation groove , a heat conductive member at least partially disposed between the heat transfer member and the heat radiation member , and electrically insulating double-sided tape configured to attach the heat conductive member to the support member , wherein the heat radiation member absorbs heat from the heat transfer member , and radiates and releases the heat. a circuit board ; an electric component disposed on a face of the circuit board ; an electromagnetic shielding member mounted so as to cover at least a portion of the electric component on the face of the circuit board ; an opening formed in the shielding member so as to expose a portion of the electric component to an outside of the shielding member ; and a heat transfer member including at least a portion of a flange portion , attached to an outer face of the shielding member to close the opening and connected to the portion of the electric component , a support member disposed to face at least a portion of the circuit board , wherein the heat transfer member forms an electromagnetic shielding structure together with the shielding member and is fixed in a compressed state between the electric component and the support member , wherein the electronic device further comprises: an accommodation groove formed in the support member ; a heat radiation member disposed in the accommodation groove , a heat conductive member at least partially disposed between the heat transfer member and the heat radiation member , and electrically insulating double-sided tape configured to attach the heat conductive member to the support member , an accommodation groove formed in the support member ; a heat radiation member disposed in the accommodation groove , a heat conductive member at least partially disposed between the heat transfer member and the heat radiation member , and electrically insulating double-sided tape configured to attach the heat conductive member to the support member , wherein the heat radiation member absorbs heat from the heat transfer member , and radiates and releases the heat.
Cosmetic sunscreen comprising a) bismuth oxychloride particles having a refractive index of 2.15 and b) titanium dioxide and/or zinc oxide having a primary particle size of 10 to 200 nm, characterized in that the composition is free of polyethylene glycol, polyethylene glycol ethers and polyethylene glycol esters (called PEG derivatives) and does not contain any 3-(4-methylbenzylidene)camphor, 2-hydroxy-4-methoxybenzophenone (INCI: Oxybenzone), 2-ethylhexyl 4-methoxycinnamate, isoamyl 4-methoxycinnamate and ethylhexyl 2-cyano-3,3-diphenylacrylate (INCI: Octocrylene), any parabens, methylisothiazolinone, chlorphenesin, chloromethylisothiazolinone and DMDM hydantoin. a) bismuth oxychloride particles having a refractive index of 2.15 and b) titanium dioxide and/or zinc oxide having a primary particle size of 10 to 200 nm,
A method for real-time communication connection, applied to service processes started on a server, wherein the server is configured to allocate user datagram protocol, UDP, ports for binding to the service processes, and the service processes are in one-to-one correspondence with the UDP ports, the method comprising: receiving , by the server, session description protocol, SDP, requests sent by at least one client for resource negotiation from a transmission control protocol, TCP, port of the server; for each respective SDP request of the SDP requests, sending , by the server, a respective SDP response to a client of the at least one client based on the respective SDP request, the client of the at least one client having sent the respective SDP request, wherein the respective SDP response carries information of a UDP port corresponding to a service process that processes the respective SDP request, wherein the service process processing the respective SDP request is one of the service processes locally started on the server which is selected by the server based on a load balancing principle; receiving , by the service process, a UDP connection request sent by the client from the UDP port corresponding to the service process; and establishing , by the service process, a UDP connection by calling a Connect function. receiving , by the server, session description protocol, SDP, requests sent by at least one client for resource negotiation from a transmission control protocol, TCP, port of the server; for each respective SDP request of the SDP requests, sending , by the server, a respective SDP response to a client of the at least one client based on the respective SDP request, the client of the at least one client having sent the respective SDP request, wherein the respective SDP response carries information of a UDP port corresponding to a service process that processes the respective SDP request, wherein the service process processing the respective SDP request is one of the service processes locally started on the server which is selected by the server based on a load balancing principle; receiving , by the service process, a UDP connection request sent by the client from the UDP port corresponding to the service process; and establishing , by the service process, a UDP connection by calling a Connect function.
A shoulder prosthesis comprising: a glenoid component including a glenoid body having a proximal side and a distal side , the distal side shaped to engage with a resected portion of a glenoid cavity ; a humeral component including a humeral body having a proximal side and a distal side , the distal side shaped to engage with a resected portion of a humerus ; and an articulation component positionable between the proximal side of the glenoid component and the proximal side of the humeral component, the articulation component configured to be maintained between the glenoid and humeral components, after implantation, by at least a deltoid muscle and a rotator cuff muscle, characterised in that the articulation component includes a first portion having a first radius of curvature and a second portion located opposite the first portion and having a second radius of curvature, the first radius of curvature being larger than the second radius of curvature, and the first portion located proximate an acromion bone when implanted. a glenoid component including a glenoid body having a proximal side and a distal side , the distal side shaped to engage with a resected portion of a glenoid cavity ; a humeral component including a humeral body having a proximal side and a distal side , the distal side shaped to engage with a resected portion of a humerus ; and an articulation component positionable between the proximal side of the glenoid component and the proximal side of the humeral component, the articulation component configured to be maintained between the glenoid and humeral components, after implantation, by at least a deltoid muscle and a rotator cuff muscle, characterised in that the articulation component includes a first portion having a first radius of curvature and a second portion located opposite the first portion and having a second radius of curvature, the first radius of curvature being larger than the second radius of curvature, and the first portion located proximate an acromion bone when implanted.