mhurhangee/patent-ind-claim-en huggingface dataset:
A communication terminal device , comprising: a receiver configured to receive a message from a first communication device; a circuit configured to provide a communication device to communication device communication; a storage circuit configured to store a communication status of at least one second communication device to which data is relayed by the communication terminal device, the communication status being one of on hold or off hold statuses; and a controller configured to determine whether to relay the received message to the at least one second communication device; and when the controller determined to relay the received message: to modify the message; and to relay and transmit the modified message to the at least one second communication device; wherein the controller is further configured to relay the message received from the first communication device in accordance with the communication status stored in the storage circuit, wherein the message is relayed when the status is off hold, and wherein the message is not relayed when the status is on hold. a receiver configured to receive a message from a first communication device; a circuit configured to provide a communication device to communication device communication; a storage circuit configured to store a communication status of at least one second communication device to which data is relayed by the communication terminal device, the communication status being one of on hold or off hold statuses; and a controller configured to determine whether to relay the received message to the at least one second communication device; and when the controller determined to relay the received message: to modify the message; and to relay and transmit the modified message to the at least one second communication device; to modify the message; and to relay and transmit the modified message to the at least one second communication device; wherein the controller is further configured to relay the message received from the first communication device in accordance with the communication status stored in the storage circuit, wherein the message is relayed when the status is off hold, and wherein the message is not relayed when the status is on hold.
A method of generating a digitally stained microscopic image of a label-free sample comprising: training a deep neural network that is executed by image processing software using one or more processors of a computing device , wherein the deep neural network is trained with a plurality of matched pairs of chemically stained images or image patches and their corresponding autofluorescence images or image patches of the same sample and wherein the matched pairs are subject to global registration process based on extracted feature vectors and their corresponding locations from the matched pairs and a subsequent local registration process that learns, using a neural network, the color mapping between the globally registered matched pairs followed by local feature registration which matches local features of the matched pairs; obtaining one or more autofluorescence images of the sample using a fluorescence microscope and one or more excitation light sources and one or more emission filters, wherein fluorescent light is emitted from endogenous fluorophores or other endogenous emitters of frequency-shifted light within the sample ; inputting the one or more autofluorescence images of the sample to the trained, deep neural network ; and the trained, deep neural network outputting the digitally stained microscopic image of the sample that is substantially equivalent to a corresponding brightfield image of the same sample that has been chemically stained . training a deep neural network that is executed by image processing software using one or more processors of a computing device , wherein the deep neural network is trained with a plurality of matched pairs of chemically stained images or image patches and their corresponding autofluorescence images or image patches of the same sample and wherein the matched pairs are subject to global registration process based on extracted feature vectors and their corresponding locations from the matched pairs and a subsequent local registration process that learns, using a neural network, the color mapping between the globally registered matched pairs followed by local feature registration which matches local features of the matched pairs; obtaining one or more autofluorescence images of the sample using a fluorescence microscope and one or more excitation light sources and one or more emission filters, wherein fluorescent light is emitted from endogenous fluorophores or other endogenous emitters of frequency-shifted light within the sample ; inputting the one or more autofluorescence images of the sample to the trained, deep neural network ; and the trained, deep neural network outputting the digitally stained microscopic image of the sample that is substantially equivalent to a corresponding brightfield image of the same sample that has been chemically stained .
Quick coupler for changing attachments on a construction machine, comprising a carrier , first receiving members arranged on one side of the carrier for a first coupling member , second receiving members arranged on the other side of the carrier for a second coupling member , a locking unit associated with the second receiving members and movable between a release position and a locking position, and a catch unit arranged on the carrier and having at least one catch hook pivotably arranged on the carrier for catching the attachment, characterized in that a control member , which is designed to be actuated by the first coupling member and can be actuated independently of the locking unit , is arranged on the catch hook for controlling the pivoting movement of the catch hook between a folded-in and folded-out position.
An implantable abdominal hernia repair mesh for use in reconstructing abdominal tissue, the implantable abdominal hernia repair mesh comprising: a mesh body having a surrounding edge , wherein the mesh body is rectangular or square; mesh extensions extending from the surrounding edge of the mesh body , each mesh extension having a first end and a second end , and optionally further comprising a fixation device at the second end of each mesh extension, wherein the first end of the mesh extension is integrated into or part of the mesh body , and wherein each mesh extension is configured to permit multiple anchor points with surrounding tissue upon implantation, wherein the mesh extensions are arranged in opposing pairs which extend oppositely from one another from the surrounding edge , and wherein the mesh extensions are configured to be passed through at least a portion of the surrounding tissue multiple times, and wherein a length between the first end and a second end of each mesh extension is at least 10 cm, and when affixed to the surrounding tissue, the implantable mesh can withstand a tensile stress of least 16 newtons per centimeter without migrating or dehiscing a mesh body having a surrounding edge , wherein the mesh body is rectangular or square; mesh extensions extending from the surrounding edge of the mesh body , each mesh extension having a first end and a second end , and optionally further comprising a fixation device at the second end of each mesh extension, wherein the first end of the mesh extension is integrated into or part of the mesh body , and wherein each mesh extension is configured to permit multiple anchor points with surrounding tissue upon implantation, wherein the mesh extensions are arranged in opposing pairs which extend oppositely from one another from the surrounding edge , and wherein the mesh extensions are configured to be passed through at least a portion of the surrounding tissue multiple times, and wherein a length between the first end and a second end of each mesh extension is at least 10 cm, and when affixed to the surrounding tissue, the implantable mesh can withstand a tensile stress of least 16 newtons per centimeter without migrating or dehiscing each mesh extension having a first end and a second end , and optionally further comprising a fixation device at the second end of each mesh extension, wherein the first end of the mesh extension is integrated into or part of the mesh body , and wherein each mesh extension is configured to permit multiple anchor points with surrounding tissue upon implantation, wherein the mesh extensions are arranged in opposing pairs which extend oppositely from one another from the surrounding edge , and wherein the mesh extensions are configured to be passed through at least a portion of the surrounding tissue multiple times, and wherein a length between the first end and a second end of each mesh extension is at least 10 cm, and when affixed to the surrounding tissue, the implantable mesh can withstand a tensile stress of least 16 newtons per centimeter without migrating or dehiscing
A first treatment agent for use in a method of treating a subject with a respiratory inflammatory condition characterized by a detectable clinical symptom, the method comprising: administering to the subject an effective dose in alleviating said condition of said first treatment agent comprising 17alpha-hydroxyprogesterone caproate; wherein upon continuing said administration there is a desired change in the clinical symptom, where the clinical symptom is selected from a group consisting of: (a) lung structure, and (b) lung function. administering to the subject an effective dose in alleviating said condition of said first treatment agent comprising 17alpha-hydroxyprogesterone caproate; wherein upon continuing said administration there is a desired change in the clinical symptom, where the clinical symptom is selected from a group consisting of: (a) lung structure, and (b) lung function. (a) lung structure, and (b) lung function.
A heat exchanger system for a gas turbine engine , comprising: a first structure at least partially defining a first plenum configured to receive a first air stream ; a first air duct enclosing the first air stream ; a second structure at least partially defining the outer wall of a second plenum configured to receive a second air stream having lower pressure than the first air stream , wherein the second air stream surrounds the first air duct ; a second air duct enclosing the second air stream ; a third structure at least partially defining the inner wall of a third plenum configured to receive a third air stream having lower pressure than the second air stream , wherein the third air stream surrounds the second air duct ; a third air duct enclosing the third air stream ; and a heat exchanger configured for operative communication with the first air stream , the second air stream , and the third air stream while disposed between the second air stream and the third air stream , the heat exchanger configured to transfer heat from a portion of the first air stream to a portion of the second air stream at the heat exchanger , the portion of the second air stream flowing to the third air stream ; characterized in that the heat exchanger is disposed within the second air duct between the second and third structures , the second air duct including aerodynamic surfaces surrounding the heat exchanger . a first structure at least partially defining a first plenum configured to receive a first air stream ; a first air duct enclosing the first air stream ; a second structure at least partially defining the outer wall of a second plenum configured to receive a second air stream having lower pressure than the first air stream , wherein the second air stream surrounds the first air duct ; a second air duct enclosing the second air stream ; a third structure at least partially defining the inner wall of a third plenum configured to receive a third air stream having lower pressure than the second air stream , wherein the third air stream surrounds the second air duct ; a third air duct enclosing the third air stream ; and a heat exchanger configured for operative communication with the first air stream , the second air stream , and the third air stream while disposed between the second air stream and the third air stream , the heat exchanger configured to transfer heat from a portion of the first air stream to a portion of the second air stream at the heat exchanger , the portion of the second air stream flowing to the third air stream ; characterized in that the heat exchanger is disposed within the second air duct between the second and third structures , the second air duct including aerodynamic surfaces surrounding the heat exchanger .
A method for producing a plated part, comprising: forming, on a surface of a base member , a catalyst activity inhibiting layer containing a polymer which has at least one of an amide group and an amino group; irradiating with light or heating a part of the surface of the base member on which the catalyst activity inhibiting layer is formed; applying an electroless plating catalyst to the surface of the base member heated or irradiated with the light; and bringing an electroless plating solution into contact with the surface of the base member to which the electroless plating catalyst is applied, to form an electroless plating film at a light-irradiated portion or a heated portion of the surface; wherein the polymer is a branched polymer having a side chain; characterized in that the branched polymer is a hyper-branched polymer, wherein the side chain of the branched polymer has a group containing sulfur, wherein the side chain of the branched polymer has at least one of the amide group and the amino group. forming, on a surface of a base member , a catalyst activity inhibiting layer containing a polymer which has at least one of an amide group and an amino group; irradiating with light or heating a part of the surface of the base member on which the catalyst activity inhibiting layer is formed; applying an electroless plating catalyst to the surface of the base member heated or irradiated with the light; and bringing an electroless plating solution into contact with the surface of the base member to which the electroless plating catalyst is applied, to form an electroless plating film at a light-irradiated portion or a heated portion of the surface; wherein the polymer is a branched polymer having a side chain; wherein the side chain of the branched polymer has a group containing sulfur, wherein the side chain of the branched polymer has at least one of the amide group and the amino group.
An elongated cooling die for an extruder, the die comprising the elongated die having an internal longitudinal channel configured to receive a stream from the extruder, the longitudinal channel having a transverse cross-section that is a continuous loop along at least a portion of the length of the die, the channel having a length and gap thickness configured to form oriented fibers from a protein component in a generally parallel orientation to produce an extruded protein product, wherein the ratio of the length of the channel to the gap thickness of the channel is between 30:1 and 1000:1, wherein the outer diameter of the channel is between 200 and 750 mm, and the gap thickness of the channel is between 5 mm and 30 mm, wherein the die includes one or more cooling apparatuses that cools the inner surface of the channel, and a support supporting the inner portion within the outer portion at one or more points along the length of the die.
A method for controlling at least one swimming pool equipment , the swimming pool equipment being arranged to operate according to at least a first mode of operation and a second mode of operation, the control method comprising the steps consisting in: A. having an element for covering a swimming pool basin , arranged to occupy at least a first configuration in which the cover element is deployed on the basin , and a second configuration, in which the cover element is retracted; B. automatically detecting the passage of the cover element from one of the first and second configurations to the other configuration; C. automatically controlling the at least one swimming pool equipment so that it operates according to the first mode of operation when the cover element occupies the first configuration, and according to the second mode of operation when the cover element occupies the second configuration, the method being characterized in that , in step B - a detection wave is emitted , - a reflected detection wave , corresponding to a proportion of the detection wave , is received. A. having an element for covering a swimming pool basin , arranged to occupy at least a first configuration in which the cover element is deployed on the basin , and a second configuration, in which the cover element is retracted; B. automatically detecting the passage of the cover element from one of the first and second configurations to the other configuration; C. automatically controlling the at least one swimming pool equipment so that it operates according to the first mode of operation when the cover element occupies the first configuration, and according to the second mode of operation when the cover element occupies the second configuration, the method being characterized in that , in step B - a detection wave is emitted , - a reflected detection wave , corresponding to a proportion of the detection wave , is received. - a detection wave is emitted , - a reflected detection wave , corresponding to a proportion of the detection wave , is received.
A pharmaceutical composition comprising a. at least one aspartyl aminopeptidase inhibitor and at least one angiotensin-converting-enzyme (ACE) inhibitor, or b. at least one aspartyl aminopeptidase inhibitor and at least one chymase inhibitor, or c. at least one aspartyl aminopeptidase inhibitor and at least one angiotensin-converting-enzyme (ACE) inhibitor and at least one chymase inhibitor for use in the treatment of a disease related to the renin angiotensin system (RAS) selected from a hyperplastic disease, a neoplastic disease, and a cardiovascular disease. a. at least one aspartyl aminopeptidase inhibitor and at least one angiotensin-converting-enzyme (ACE) inhibitor, or b. at least one aspartyl aminopeptidase inhibitor and at least one chymase inhibitor, or c. at least one aspartyl aminopeptidase inhibitor and at least one angiotensin-converting-enzyme (ACE) inhibitor and at least one chymase inhibitor
A method for purifying waste water by flotation, comprising the following steps: • a dispersion water is formed by enriching water with air or another gas under increased pressure, • the dispersion water is fed through an expansion valve into waste water flowing through an intake line, forming microbubbles, wherein the microbubbles are fed into the waste water in the intake line at an average speed of at least 0.05 m/s so that colloids or other solid particles from the waste water accumulate finely distributed on the surface of the microbubbles, • the waste water together with the microbubbles flows through the intake line for a specific dwell time, which is sufficient for at least half of the amount of suspended solid particles in the waste water to accumulate on the microbubbles, wherein the dwell time of the mixture of waste water and microbubbles in the intake line before it is fed into the basin is at least 5 seconds, and • the waste water with the microbubbles contained therein is fed into a basin in which the bubbles with the solid particles accumulated thereon float. • a dispersion water is formed by enriching water with air or another gas under increased pressure, • the dispersion water is fed through an expansion valve into waste water flowing through an intake line, forming microbubbles, wherein the microbubbles are fed into the waste water in the intake line at an average speed of at least 0.05 m/s so that colloids or other solid particles from the waste water accumulate finely distributed on the surface of the microbubbles, • the waste water together with the microbubbles flows through the intake line for a specific dwell time, which is sufficient for at least half of the amount of suspended solid particles in the waste water to accumulate on the microbubbles, wherein the dwell time of the mixture of waste water and microbubbles in the intake line before it is fed into the basin is at least 5 seconds, and • the waste water with the microbubbles contained therein is fed into a basin in which the bubbles with the solid particles accumulated thereon float.
A fertilizer composition, comprising: - an ammonium nitrate material; and - an effective amount of a stabilizer material to result in a specific impulse of not greater than 13.5 kPa ∗ ms/kg when measured in accordance with a blast propagation test; wherein the stabilizer material comprises hydrocalumite, hydroxyapatite hydrotalcite, and/or apatite, wherein the stabilizer material is at least 12.5 wt. % of the total fertilizer composition, wherein the stabilizer material is not greater than 35 wt. % of the total fertilizer composition, and wherein the fertilizer composition is configured in the form of: pellets, prills, granules, disks, powder, or combinations thereof. - an ammonium nitrate material; and - an effective amount of a stabilizer material to result in a specific impulse of not greater than 13.5 kPa ∗ ms/kg when measured in accordance with a blast propagation test;
A compound according to the general formula I wherein R 1 is hydroxy, R 2 is selected from the group consisting of H, methoxy, ethoxy, n-propoxy and i-propoxy; and R 3 is selected from the group consisting of H, methoxy, ethoxy, n-propoxy and i-propoxy; R 4 and R 5 , each independently of the other, are H or, in each case, an R 4 and an R 5 together form a C-C-bond in such a way that, between the mutually neighboring C atoms at which R 4 and R 5 are located, there is a single, double, or triple bond; R 6 is selected from the group consisting of unbranched or branched C 6 bis C 60 alkyl, unbranched or branched C 6 to C 60 alkenyl, C 6 to C 60 hydroxypolyethylene glycol, C 6 to C 60 methoxypolyethylene glycol, and C 5 to C 120 prenyl; and X is selected from the group consisting of O, S, N-H, N-methyl, N-ethyl, N-n-propyl, N-i-propyl and N-R 6 ; the stereoisomers, enantiomers or diastereomers thereof, the physiologically acceptable salts thereof, as well as mixtures of the cited compounds for therapeutical use in the increasing of mental capability. R 1 is hydroxy, R 2 is selected from the group consisting of H, methoxy, ethoxy, n-propoxy and i-propoxy; and R 3 is selected from the group consisting of H, methoxy, ethoxy, n-propoxy and i-propoxy; R 4 and R 5 , each independently of the other, are H or, in each case, an R 4 and an R 5 together form a C-C-bond in such a way that, between the mutually neighboring C atoms at which R 4 and R 5 are located, there is a single, double, or triple bond; R 6 is selected from the group consisting of unbranched or branched C 6 bis C 60 alkyl, unbranched or branched C 6 to C 60 alkenyl, C 6 to C 60 hydroxypolyethylene glycol, C 6 to C 60 methoxypolyethylene glycol, and C 5 to C 120 prenyl; and X is selected from the group consisting of O, S, N-H, N-methyl, N-ethyl, N-n-propyl, N-i-propyl and N-R 6 ; the stereoisomers, enantiomers or diastereomers thereof, the physiologically acceptable salts thereof, as well as mixtures of the cited compounds for therapeutical use in the increasing of mental capability.