mhurhangee/ep-ind-claims huggingface dataset:
A method for analysing pressure-signals derivable from pressure measurements on or in a body of a human being or animal, comprising the steps of sampling said signals at specific intervals, converting the pressure signals into pressure-related digital data and storing the pressure-related digital data along with a time reference, comprising the steps of: - identifying from said digital data features related to single pressure waves in said pressure signals, - said identifying step including determination of a minimum pressure value related to diastolic minimum value and a maximum pressure value related to systolic maximum value, and - determining the following single pressure wave parameters of the single wave: pressure amplitude (ΔP) being the difference between systolic maximum pressure value and diastolic minimum pressure value, latency (ΔT) being the time elapsed from occurrence of diastolic minimum pressure value to systolic maximum pressure value, rise time coefficient (ΔP/ΔT) being the quotient of pressure amplitude (ΔP) and latency (ΔT), and wavelength being the time elapsed between successive minimum pressure values, and - determining numbers of single pressure waves with pre-selected values of pressure amplitude (ΔP) and latency (ΔT) during a given recording period, and wherein a matrix is created based on determination of said numbers of single pressure waves with preselected values of pressure amplitude (ΔP) and latency (ΔT), wherein one axis of the matrix is related to a first array of said pre-selected values of pressure amplitude (ΔP), wherein the other axis is related to a second array of said pre-selected values of latency (ΔT), and wherein said numbers in said matrix relate to numbers of occurrence of matches between specific pressure amplitude (ΔP) of said first array and specific latency (ΔT) values of said second array over said given recording period, wherein said pressure amplitude values and said latency values are relative values not related to a zero pressure level. - identifying from said digital data features related to single pressure waves in said pressure signals, - said identifying step including determination of a minimum pressure value related to diastolic minimum value and a maximum pressure value related to systolic maximum value, and - determining the following single pressure wave parameters of the single wave: pressure amplitude (ΔP) being the difference between systolic maximum pressure value and diastolic minimum pressure value, latency (ΔT) being the time elapsed from occurrence of diastolic minimum pressure value to systolic maximum pressure value, rise time coefficient (ΔP/ΔT) being the quotient of pressure amplitude (ΔP) and latency (ΔT), and wavelength being the time elapsed between successive minimum pressure values, and - determining numbers of single pressure waves with pre-selected values of pressure amplitude (ΔP) and latency (ΔT) during a given recording period, and
Illuminated decorative trim sealing profile combination for a motor vehicle with a decorative trim and a sealing profile, wherein • the decorative trim has a profile trim that defines a functional side facing the vehicle and a decorative side facing away from the vehicle, wherein the decorative side has an externally visible decorative surface, which is delimited by a lower visible edge, and • the profile trim is supported by a sealing profile to be arranged on the motor vehicle in a final installation on the motor vehicle as intended, and • at least one lighting means arranged on the functional side is provided, characterised in that the profile trim is made from a non-light-permeable material and a light gap is formed under the lower visual edge in a final installation on the vehicle as intended, from which the light emitted by the lighting means can exit in a way that is visible from the outside. • the decorative trim has a profile trim that defines a functional side facing the vehicle and a decorative side facing away from the vehicle, wherein the decorative side has an externally visible decorative surface, which is delimited by a lower visible edge, and • the profile trim is supported by a sealing profile to be arranged on the motor vehicle in a final installation on the motor vehicle as intended, and • at least one lighting means arranged on the functional side is provided,
Supply system (2, 48, 58, 74, 82, 86) for providing at least oxygen depleted air and water in a vehicle, the system comprising: - a fuel cell, - an independent catalytic converter (4, 50, 56, 66), - at least one hydrogen supply means, - at least one air supply means (12, 14, 60, 64, 76, 84), - at least one outlet for oxygen depleted air, and - a control unit coupled with the catalytic converter (4, 50, 56, 66), wherein the fuel cell and the catalytic converter (4, 50, 56, 66) are couplable with the hydrogen supply means, wherein the fuel cell is adapted for producing water and electric energy through conducting a fuel cell process under consumption of hydrogen from the at least one hydrogen supply means and oxygen, wherein the catalytic converter (4, 50, 56, 66) is adapted for producing water under consumption of hydrogen from the at least one hydrogen supply means and oxygen, wherein the catalytic converter (4, 50, 56, 66) is couplable with the at least one air supply means (12, 14, 60, 64, 76, 84) for additionally producing oxygen depleted air, and wherein the control unit is adapted for selectively operating the fuel cell and the catalytic converter (4, 50, 56, 66) based on a demand of water, oxygen depleted air and electrical energy. - a fuel cell, - an independent catalytic converter (4, 50, 56, 66), - at least one hydrogen supply means, - at least one air supply means (12, 14, 60, 64, 76, 84), - at least one outlet for oxygen depleted air, and - a control unit coupled with the catalytic converter (4, 50, 56, 66),
A composition for optical materials comprising a compound (a) and/or a compound (b) and a compound (c), wherein: the compound (a) is a compound represented by formula: the compound (b) is a compound represented by formula: and the compound (c) is an episulfide compound. the compound (a) is a compound represented by formula: the compound (b) is a compound represented by formula: and the compound (c) is an episulfide compound.
A method for laser welding, the method comprising: preparing a pair of workpieces being a pair of plate members respectively having through-holes common in size and shape, which are aligned when the workpieces are overlapped; overlapping and placing the pair of workpieces on a base jig having a pin hole aligned with the through-holes; preparing a main jig having an opening surrounding the through-holes along a laser welding position surrounding the through-holes outside the laser welding position; pressing the main jig against the base jig in a state in which the through-holes are surrounded by the opening; positioning the pair of workpieces with each other; allowing a displacement force in a direction toward the base jig to act on the main jig to clamp the pair of workpieces; preparing a sub-jig having a head and a pin and forming an annular light guiding path guiding a laser beam to the laser welding position located in a gap between the opening of the main jig and the head facing each other in a state in which the pin is inserted into the pin hole; inserting the pin into the pin hole through the through-holes of the pair of workpieces placed on the base jig; and allowing a displacement force in a direction to deepen the insertion of the pin to act on the sub-jig having the pin inserted into the pin hole through the through-holes of the pair of workpieces placed on the base jig until the head abuts against one of the workpieces to clamp the pair of workpieces. preparing a pair of workpieces being a pair of plate members respectively having through-holes common in size and shape, which are aligned when the workpieces are overlapped; overlapping and placing the pair of workpieces on a base jig having a pin hole aligned with the through-holes; preparing a main jig having an opening surrounding the through-holes along a laser welding position surrounding the through-holes outside the laser welding position; pressing the main jig against the base jig in a state in which the through-holes are surrounded by the opening; positioning the pair of workpieces with each other; allowing a displacement force in a direction toward the base jig to act on the main jig to clamp the pair of workpieces; preparing a sub-jig having a head and a pin and forming an annular light guiding path guiding a laser beam to the laser welding position located in a gap between the opening of the main jig and the head facing each other in a state in which the pin is inserted into the pin hole; inserting the pin into the pin hole through the through-holes of the pair of workpieces placed on the base jig; and allowing a displacement force in a direction to deepen the insertion of the pin to act on the sub-jig having the pin inserted into the pin hole through the through-holes of the pair of workpieces placed on the base jig until the head abuts against one of the workpieces to clamp the pair of workpieces.
A pneumatic mail station for receiving pneumatic mail capsules, for emptying the same and for transferring their contents into a collecting container, characterised in that the pneumatic mail station has a collecting container and an outlet point which is separate therefrom, as well as a separating module which has a plurality of chambers, the pneumatic mail capsules being emptyable into, in each case, one of these chambers, and in that the contents of the chambers are emptyable either into the collecting container or into the outlet point which is separate therefrom.
A pharmaceutical composition comprising an aromatic-cationic peptide or a pharmaceutically acceptable salt thereof and a pharmaceutically acceptable carrier for use in treating a subject suffering from an autoimmune disease characterized by an increased level of cardiolipin antibody, wherein the autoimmune disease is antiphospholipid syndrome, and wherein the peptide comprises D-Arg-2',6'-Dmt-Lys-Phe-NH 2.
Pharmaceutical composition for use in a method of preventing or treating a sex hormone-dependent disease, wherein the pharmaceutical composition comprising: a long-acting fatty acid-conjugated gonadotropin-releasing hormone (GnRH) derivative in which gonadotropin-releasing hormone (GnRH) derivative is conjugated with a fatty acid, or a pharmaceutically acceptable salt thereof as an active ingredient; and cyclodextrin, wherein a carboxyl group of the fatty acid of the GnRH derivative is conjugated through a peptide-bond to an amino terminus of the peptide portion of the GnRH derivative, wherein the GnRH derivative comprises an amino acid sequence selected from the group consisting of SEQ ID NO: 2, and SEQ ID NOS: 4 to 11, preferably, the GnRH derivative comprises an amino acid sequence selected from the group consisting of SEQ ID NOS: 4 to 11, more preferably, the GnRH derivative comprises an amino acid sequence of SEQ ID NOS: 5 or 11, wherein the fatty acid-conjugated GnRH derivative and the cyclodextrin exist together as an inclusion complex, preferably, the sex hormone-dependent disease is selected from the group consisting of prostate cancer, breast cancer, ovarian cancer, endometriosis, uterine fibroid, polycystic ovary disease, central precocious puberty, hypertrichosis, gonadotroph pituitary adenoma, sleep apnea, irritable bowel syndrome, premenstrual syndrome, benign prostatic hyperplasia, and contraception, optionally, the pharmaceutical composition further comprises a biodegradable polymer. a long-acting fatty acid-conjugated gonadotropin-releasing hormone (GnRH) derivative in which gonadotropin-releasing hormone (GnRH) derivative is conjugated with a fatty acid, or a pharmaceutically acceptable salt thereof as an active ingredient; and cyclodextrin, wherein a carboxyl group of the fatty acid of the GnRH derivative is conjugated through a peptide-bond to an amino terminus of the peptide portion of the GnRH derivative, wherein the GnRH derivative comprises an amino acid sequence selected from the group consisting of SEQ ID NO: 2, and SEQ ID NOS: 4 to 11, preferably, the GnRH derivative comprises an amino acid sequence selected from the group consisting of SEQ ID NOS: 4 to 11, more preferably, the GnRH derivative comprises an amino acid sequence of SEQ ID NOS: 5 or 11, wherein the fatty acid-conjugated GnRH derivative and the cyclodextrin exist together as an inclusion complex, preferably, the sex hormone-dependent disease is selected from the group consisting of prostate cancer, breast cancer, ovarian cancer, endometriosis, uterine fibroid, polycystic ovary disease, central precocious puberty, hypertrichosis, gonadotroph pituitary adenoma, sleep apnea, irritable bowel syndrome, premenstrual syndrome, benign prostatic hyperplasia, and contraception, optionally, the pharmaceutical composition further comprises a biodegradable polymer.
A method of manufacturing a solar module, comprising: obtaining a laminated body by arranging a colored resin sheet on a rear side of solar cells and arranging a transparent resin sheet on a light receiving side of the solar cells, wherein each solar cell includes a rear surface on the rear side of the solar cell and a light receiving surface on the light receiving side of the solar cell; fabricating the solar module including a colored encapsulant located on the rear side of the solar cells and formed of the colored resin sheet and a transparent encapsulant located on the light receiving side of the solar cell and formed of the transparent resin sheet, by pressurizing the laminated body while heating the laminated body to such a temperature that a storage elastic modulus of the transparent resin sheet is higher than a storage elastic modulus of the colored resin sheet, such that an interface between the colored encapsulant and the transparent encapsulant is located more on the rear side than the light receiving surface of the light receiving side of the solar cells and located more on the light receiving side than a center in a thickness direction of the solar cells. obtaining a laminated body by arranging a colored resin sheet on a rear side of solar cells and arranging a transparent resin sheet on a light receiving side of the solar cells, wherein each solar cell includes a rear surface on the rear side of the solar cell and a light receiving surface on the light receiving side of the solar cell; fabricating the solar module including a colored encapsulant located on the rear side of the solar cells and formed of the colored resin sheet and a transparent encapsulant located on the light receiving side of the solar cell and formed of the transparent resin sheet, by pressurizing the laminated body while heating the laminated body to such a temperature that a storage elastic modulus of the transparent resin sheet is higher than a storage elastic modulus of the colored resin sheet, such that an interface between the colored encapsulant and the transparent encapsulant is located more on the rear side than the light receiving surface of the light receiving side of the solar cells and located more on the light receiving side than a center in a thickness direction of the solar cells.
Fireplace comprising: - a hearth suspended from a support, the hearth being laterally delimited by a peripheral wall which is provided with at least one combustion air inlet, - a duct for discharging combustion gases, the discharge duct being secured to said support and comprising a lower portion which is secured to an upper part of the hearth, and an upper portion opposite the lower portion, - at least one burner for combustible fluid which is arranged in the hearth facing said at least one air inlet, characterized in that it comprises: - a combustible fluid supply column which extends between a first end connected to a combustible fluid source and a second end connected to said at least one burner, the supply column passing downwardly through the discharge duct from its upper portion to its lower portion and opening into the hearth so as to transport the combustible fluid from the combustible fluid source to said at least one burner. - a hearth suspended from a support, the hearth being laterally delimited by a peripheral wall which is provided with at least one combustion air inlet, - a duct for discharging combustion gases, the discharge duct being secured to said support and comprising a lower portion which is secured to an upper part of the hearth, and an upper portion opposite the lower portion, - at least one burner for combustible fluid which is arranged in the hearth facing said at least one air inlet, characterized in that it comprises: - a combustible fluid supply column which extends between a first end connected to a combustible fluid source and a second end connected to said at least one burner, the supply column passing downwardly through the discharge duct from its upper portion to its lower portion and opening into the hearth so as to transport the combustible fluid from the combustible fluid source to said at least one burner. - a combustible fluid supply column which extends between a first end connected to a combustible fluid source and a second end connected to said at least one burner, the supply column passing downwardly through the discharge duct from its upper portion to its lower portion and opening into the hearth so as to transport the combustible fluid from the combustible fluid source to said at least one burner.
A plate condenser assembly (100, 200) comprising: a plate condenser core; a housing enclosing the plate condenser core; wherein the housing further comprises an internal housing adapted to enclose and firmly hold the plate condenser core, an external housing adapted to enclose and firmly hold the internal housing, spacing means disposed between the internal housing and the external housing and defining volumes (105, 106) between these housings (101, 110); characterised in that a rigid material (140a, 140b) is disposed in the defined volumes (105, 106), forming rigid connection between the internal housing and the external housing. a plate condenser core; a housing enclosing the plate condenser core; wherein the housing further comprises an internal housing adapted to enclose and firmly hold the plate condenser core, an external housing adapted to enclose and firmly hold the internal housing, spacing means disposed between the internal housing and the external housing and defining volumes (105, 106) between these housings (101, 110); characterised in that a rigid material (140a, 140b) is disposed in the defined volumes (105, 106), forming rigid connection between the internal housing and the external housing.
Method for producing a knitted fabric panel on a knitting machine having two mutually opposite needle beds (1, 2) and a loop transfer installation, comprising the following steps: a) knitting a knitted ground fabric on both needle beds (1, 2); b) transferring individual loops of the knitted ground fabric that are suspended from mutually spaced apart needles of the stitch course of the first needle bed that forms the left fabric side to opposite empty needles of the other, second, needle bed; characterized by c) casting off needles which are populated by a tuck or a loop to neighbouring needles of the first needle bed, said neighbouring needles being unpopulated as a consequence of the transfer, by means of an elastic thread while forming a float; d) returning the previously transferred loops to the previous needles; e) casting off the returned loops and the loops knitted from the elastic thread conjointly with the threads that form the knitted ground fabric. a) knitting a knitted ground fabric on both needle beds (1, 2); b) transferring individual loops of the knitted ground fabric that are suspended from mutually spaced apart needles of the stitch course of the first needle bed that forms the left fabric side to opposite empty needles of the other, second, needle bed; characterized by c) casting off needles which are populated by a tuck or a loop to neighbouring needles of the first needle bed, said neighbouring needles being unpopulated as a consequence of the transfer, by means of an elastic thread while forming a float; d) returning the previously transferred loops to the previous needles; e) casting off the returned loops and the loops knitted from the elastic thread conjointly with the threads that form the knitted ground fabric.
A valve device (1, 101) for electrically regulating a pressure in a hydraulic fluid flow (q) through the valve device in response to an actuating force during a normal operation and mechanically regulating said pressure during a fail-safe operation when no actuating force is present, said valve device comprising: a valve chamber (2, 102); a first valve member (3, 103) being movable within said valve chamber (2, 102) in an axial direction to interact with a first valve seat (4, 104) in response to said actuating force in order to influence said hydraulic fluid flow (q) into said valve chamber during normal operation, said first valve member (3, 103) being spring-loaded in a direction opposite that of the direction of the actuating force; a second valve member (5, 105) forming a movable chamber wall portion of said valve chamber (2, 102), said second valve member (5, 105) being spring-loaded against a second valve seat (6, 106) in said direction of the actuating force, said second valve member (5, 105) comprising a through hole (10, 110) for allowing said hydraulic fluid flow out of the valve chamber (2, 102) during normal operation, characterized in that said spring-loaded first valve member (3, 103) is arranged to close said through hole (10, 110) during said fail-safe operation such that said pressure is mechanically regulated by said second valve member (5, 105) acting on said second valve seat (6, 106). a valve chamber (2, 102); a first valve member (3, 103) being movable within said valve chamber (2, 102) in an axial direction to interact with a first valve seat (4, 104) in response to said actuating force in order to influence said hydraulic fluid flow (q) into said valve chamber during normal operation, said first valve member (3, 103) being spring-loaded in a direction opposite that of the direction of the actuating force; a second valve member (5, 105) forming a movable chamber wall portion of said valve chamber (2, 102), said second valve member (5, 105) being spring-loaded against a second valve seat (6, 106) in said direction of the actuating force, said second valve member (5, 105) comprising a through hole (10, 110) for allowing said hydraulic fluid flow out of the valve chamber (2, 102) during normal operation, characterized in that said spring-loaded first valve member (3, 103) is arranged to close said through hole (10, 110) during said fail-safe operation such that said pressure is mechanically regulated by said second valve member (5, 105) acting on said second valve seat (6, 106).
An alloy comprising (in % by mass) Ni 33.5 - 35 % Cr 26 - 28 % Mo 6-7 % Cu 0.5 - 1.5 % Mn 1.0 - 4 % Si max. 0,1 % Al 0.01 - 0.3 % C max. 0.01 % N 0.1 - 0.25 % B 0.001 - 0.004 % rare earths > 0 to 1 % Fe being the rest, including unavoidable impurities.