mhurhangee/patent-ind-claim-en huggingface dataset:
Connection shaft of a vacuum waste water system comprising - a lower shaft part closed at the bottom and having a hollow-cylinder geometry, - an upper shaft part with shut-off valve arranged therein and having a housing plus an intake opening and a suction opening , - a suction pipe running in the longitudinal axis direction of the shaft, extending from the bottom region of the shaft, and connected to the intake opening of the shut-off valve, - a vacuum connection pipe connected to the suction opening of the shut-off valve, the lower shaft part being connected to the upper shaft part , and the intake and suction openings extending from opposite sides of the shut-off valve housing and being passed through by the longitudinal axis of the shut-off valve, wherein the lower shaft part is a pipe or a cut-to-length section thereof, the lower shaft part is closed at the bottom by means of a socket plug, and where the housing of the shut-off valve runs with its longitudinal axis along the longitudinal axis of the shaft and the intake opening of the shut-off valve runs facing away from the bottom. - a lower shaft part closed at the bottom and having a hollow-cylinder geometry, - an upper shaft part with shut-off valve arranged therein and having a housing plus an intake opening and a suction opening , - a suction pipe running in the longitudinal axis direction of the shaft, extending from the bottom region of the shaft, and connected to the intake opening of the shut-off valve, - a vacuum connection pipe connected to the suction opening of the shut-off valve,
A eukaryotic translation initiation factor 2-alpha kinase 1 (eIF2αK1) inhibitor for use in treating hemoglobinopathy in a subject.
A nanodevice comprising: a substrate ; a mask layer located on the substrate , the mask layer having at least one opening ; and a nanowall , having a length, a nano-scale thickness, and a height, formed on the substrate through the opening , the nanowall extending through the opening in a direction perpendicular to a surface of the substrate and forming a closed structure in the length direction, characterized in that the substrate comprises a first substrate portion contacting the nanowall and a second substrate portion not contacting the nanowall and surrounded by the first substrate portion, and wherein surface energy of the first substrate portion is larger than that of the second substrate portion, and a difference in the surface energy between the first and second substrate portions, due to a difference in radius of curvature between the first substrate portion and the second substrate portion, is about 0.1 J/m 2 to about 5 J/m 2 . a substrate ; a mask layer located on the substrate , the mask layer having at least one opening ; and a nanowall , having a length, a nano-scale thickness, and a height, formed on the substrate through the opening , the nanowall extending through the opening in a direction perpendicular to a surface of the substrate and forming a closed structure in the length direction, characterized in that the substrate comprises a first substrate portion contacting the nanowall and a second substrate portion not contacting the nanowall and surrounded by the first substrate portion, and wherein surface energy of the first substrate portion is larger than that of the second substrate portion, and a difference in the surface energy between the first and second substrate portions, due to a difference in radius of curvature between the first substrate portion and the second substrate portion, is about 0.1 J/m 2 to about 5 J/m 2 .
A wireless node (102A - 102F) comprising: at least one processor; memory storing computer program code; wherein the memory storing the computer program code is configured to, with the at least one processor, cause the wireless node (102A - 102F) to perform the following steps: upon receipt by the receiving wireless node (102A - 102F) of a message associated with a group of wireless nodes , compare , by the receiving wireless node (102A - 102F), at least one indicium in the message against other indicia determined on basis of radio channel characteristics; the radio channel characteristics are sensed through physical carrier sensing and virtual carrier sensing; and to direct a response, by the receiving wireless node (102A - 102F), to the message only if the the at least one indicium in the message matches one of the indicia within a specified threshold. at least one processor; memory storing computer program code; wherein the memory storing the computer program code is configured to, with the at least one processor, cause the wireless node (102A - 102F) to perform the following steps: upon receipt by the receiving wireless node (102A - 102F) of a message associated with a group of wireless nodes , compare , by the receiving wireless node (102A - 102F), at least one indicium in the message against other indicia determined on basis of radio channel characteristics; the radio channel characteristics are sensed through physical carrier sensing and virtual carrier sensing; and to direct a response, by the receiving wireless node (102A - 102F), to the message only if the the at least one indicium in the message matches one of the indicia within a specified threshold.
Holder device for holding a portable electronic device of the smart phone type , comprising a mount intended for mounting said device on a motor vehicle dashboard element, and a cradle connected to the mount and intended to accept the portable device, said dashboard element consisting of a central display screen of the vehicle, said holder device being characterized in that it comprises rails arranged along at least an upper edge of the screen, said mount being provided with guiding and retaining elements which are intended to collaborate with the rails, and with an operating member that can be manipulated manually between an operated state in which said guiding and retaining elements can move freely in translation in a slot formed in the rails, and a state of rest in which said guiding and retaining elements are immobilized in said slot.
A thick steel plate for structural pipes or tubes, comprising: a chemical composition that contains, in mass%, C: 0.030 % to 0.100 %, Si: 0.01 % to 0.50 %, Mn: 1.50 % to 2.50 %, Al: 0.080 % or less, Mo: 0.05 % to 0.50 %, Ti: 0.005 % to 0.025 %, Nb: 0.005 % to 0.080 %, N: 0.001 % to 0.010 %, O: 0.005 % or less, P: 0.010 % or less, S: 0.0010 % or less, and optionally one or more of V: 0.005 % to 0.100 %, Cu: 0.50 % or less, Ni: 0.50 % or less, Cr: 0.50 % or less, Ca: 0.0005 % to 0.0035 %, REM: 0.0005 % to 0.0100 %, and B: 0.0020 % or less, the balance consisting of Fe and inevitable impurities, with the chemical composition having a carbon equivalent C eq as defined by the following Expression of 0.42 or more: C eq = C + Mn / 6 + Cu + Ni / 15 + Cr + Mo + V / 5 where each element symbol indicates content in mass% of the element in the steel plate and has a value of 0 if the element is not contained in the steel plate; and a microstructure that is mainly composed of bainite, wherein the area fraction of bainite in the microstructure of the steel plate is 90% or more; the steel plate satisfies a set of conditions including: a tensile strength being 620 MPa or more; a Charpy absorption energy vE -20 °C at -20 °C at its mid-thickness part being 100 J or more; a variation in Vickers hardness in a plate thickness direction ΔHV 10,t being 50 or less; and a variation in Vickers hardness in a plate widthwise direction ΔHV 10,c being 50 or less. where each element symbol indicates content in mass% of the element in the steel plate and has a value of 0 if the element is not contained in the steel plate; and a microstructure that is mainly composed of bainite, wherein the area fraction of bainite in the microstructure of the steel plate is 90% or more; the steel plate satisfies a set of conditions including: a tensile strength being 620 MPa or more; a Charpy absorption energy vE -20 °C at -20 °C at its mid-thickness part being 100 J or more; a variation in Vickers hardness in a plate thickness direction ΔHV 10,t being 50 or less; and a variation in Vickers hardness in a plate widthwise direction ΔHV 10,c being 50 or less. a tensile strength being 620 MPa or more; a Charpy absorption energy vE -20 °C at -20 °C at its mid-thickness part being 100 J or more; a variation in Vickers hardness in a plate thickness direction ΔHV 10,t being 50 or less; and a variation in Vickers hardness in a plate widthwise direction ΔHV 10,c being 50 or less.
Inhibitor of microRNA 19a and/or microRNA 19b for use in a method of treating or preventing a disease or pathological condition that is associated with bone loss or reduced muscle function, or for treating or preventing cancer-related bone destruction.
A transparency adjustment system, wherein said transparency adjustment system comprises: a. a transparent physical element (LC) whose electrical behavior is that of a capacitive load; and, b. power dimmer apparatus operative to provide AC voltage to the transparent physical element (LC) to generate a set of transparency states including a plurality of transparency states other than full transparency, wherein said power dimmer apparatus comprises: i. a single power switch powering said transparent physical element (LC); and ii. a single control circuit including a comparator operative to receive and to compare: 1. an incoming level of AC voltage; and 2. a user-selected reference voltage (V ref ); and operative, when the incoming level of AC voltage reaches the user-selected reference voltage (V ref ), to generate an output triggering truncation of sinusoidal AC voltage applied to the transparent physical element (LC), such that the control circuit controls the power switch to turn on and off; further wherein DC voltage reaching the transparent physical element (LC) from the single power switch is necessarily at most 1% of the AC voltage provided to the transparent physical element (LC). a. a transparent physical element (LC) whose electrical behavior is that of a capacitive load; and, b. power dimmer apparatus operative to provide AC voltage to the transparent physical element (LC) to generate a set of transparency states including a plurality of transparency states other than full transparency, wherein said power dimmer apparatus comprises: i. a single power switch powering said transparent physical element (LC); and ii. a single control circuit including a comparator operative to receive and to compare: 1. an incoming level of AC voltage; and 2. a user-selected reference voltage (V ref ); and operative, when the incoming level of AC voltage reaches the user-selected reference voltage (V ref ), to generate an output triggering truncation of sinusoidal AC voltage applied to the transparent physical element (LC), such that the control circuit controls the power switch to turn on and off; i. a single power switch powering said transparent physical element (LC); and ii. a single control circuit including a comparator operative to receive and to compare: 1. an incoming level of AC voltage; and 2. a user-selected reference voltage (V ref ); 1. an incoming level of AC voltage; and 2. a user-selected reference voltage (V ref );
A device for purifying liquids by distillation, the device comprising a first and a second evaporation section , and a first and a second condensation section , each evaporation sections comprising a liquid inlet and an outlet configured for a vapor and each condensation sections comprising an inlet configured for a vapor and a liquid outlet , the first evaporation section and the second condensation section being in vapor connection through the first evaporation section outlet configured for a vapor and the second condensation section inlet configured for a vapor, wherein the first evaporation section is in thermal contact with the first condensation section, and the second evaporation section is in thermal contact with the second condensation section, wherein the sections in thermal contact are separated by a non-permeable membrane, and wherein the distillate product is drained from the first condensation section and the second condensation section through the respective outlets .
A breath analysing and training assembly with a mobile unit , the breath and training assembly being adapted to detect the carbon dioxide (CO2) concentration in the breathing gas of a user, and the mobile unit comprising an image capturing means , a display and a processing means , wherein the assembly comprises a selective colorimetric CO2 detector provided with a detector surface adapted to change color rapidly and reversibly with the concentration of CO2, when exposed to CO2, and an adapter comprising - a docking part for receiving and attaching said mobile unit, wherein the docking part is configured to position said image capturing means in a fixed relation to said colorimetric detector, such that said image capturing means is adapted to capture images of said detector surface, wherein at least a part of said display is arranged to illuminate said detector surface during image capturing, - a detector holding part adapted to receive said colorimetric detector and attach said detector, - a breathing conduit to lead breathing gas to and from said user such that at least a part of the breathing gas passes the detector surface, - a detector surface protecting means adapted to protect the surface from ambient air in an airtight fashion when no measurement is performed, wherein said detector surface protecting means is adapted to be automatically moved to a non-protection position when said mobile unit is received by said docking part, such that said detector surface is available for measurements, wherein said processing means is adapted to execute an application program adapted to perform a measurement session including a measurement step that includes measuring CO2 concentration changes in breathing gas by identifying changes in the optical characteristics of said detector surface captured by said image capturing means. - a docking part for receiving and attaching said mobile unit, wherein the docking part is configured to position said image capturing means in a fixed relation to said colorimetric detector, such that said image capturing means is adapted to capture images of said detector surface, wherein at least a part of said display is arranged to illuminate said detector surface during image capturing, - a detector holding part adapted to receive said colorimetric detector and attach said detector, - a breathing conduit to lead breathing gas to and from said user such that at least a part of the breathing gas passes the detector surface, - a detector surface protecting means adapted to protect the surface from ambient air in an airtight fashion when no measurement is performed, wherein said detector surface protecting means is adapted to be automatically moved to a non-protection position when said mobile unit is received by said docking part, such that said detector surface is available for measurements,
Method for operating a gas sensor system having a gas sensor with a sensitive layer in order to provide a concentration variable of a gas concentration of a gas component in a measurement gas, having the following steps of: - measuring the gas concentration during a measurement operation in order to obtain a temporal progression of a sensor signal (S) that is dependent on the gas concentration; - determining the concentration variable (C korr ) with the aid of a data-based sensor model on the basis of the temporal progression of the sensor signal (S), wherein the data-based sensor model is trained to take into account a sensor behaviour outside the measurement operation in order to determine the concentration variable (C korr ), - wherein the data-based sensor model is designed to determine the concentration variable (C korr ) on the basis of the temporal progression of the sensor signal (S) and on the basis of the sensor behaviour outside the measurement operation. - measuring the gas concentration during a measurement operation in order to obtain a temporal progression of a sensor signal (S) that is dependent on the gas concentration; - determining the concentration variable (C korr ) with the aid of a data-based sensor model on the basis of the temporal progression of the sensor signal (S), wherein the data-based sensor model is trained to take into account a sensor behaviour outside the measurement operation in order to determine the concentration variable (C korr ), - wherein the data-based sensor model is designed to determine the concentration variable (C korr ) on the basis of the temporal progression of the sensor signal (S) and on the basis of the sensor behaviour outside the measurement operation.
A compound of the formula (I) or a salt thereof: (wherein, Ring A represents R 1 represents C 1-6 alkyl which may be substituted, C 3-8 cycloalkyl which may be substituted, or a saturated hetero ring which may be substituted, R 2a and R 2b are the same as or different from each other and each represent H or C 1-6 alkyl which may be substituted, R 2a and R 2b do not simultaneously represent H, in a case where R 2a and R 2b are bonded to the same carbon, R 2a , R 2b , and the carbon atom to which they are bonded may form a saturated hydrocarbon ring together, R 3 represents C 1-6 alkyl which may be substituted, C 3-8 cycloalkyl which may be substituted, or phenyl which may be substituted, R 4a represents H, C 1-6 alkyl, -C(O)R 9 , or -S(O) 2 R 9 , R 4b represents H or C 1-6 alkyl, X represents CR 8 or N, R 5 , R 6 , R 7 , and R 8 are the same as or different from each other and each represent H or halogen, R 9 represents C 1-6 alkyl which may be substituted or C 3-8 cycloalkyl which may be substituted, and n represents 0 or 1.) R 1 represents C 1-6 alkyl which may be substituted, C 3-8 cycloalkyl which may be substituted, or a saturated hetero ring which may be substituted, R 2a and R 2b are the same as or different from each other and each represent H or C 1-6 alkyl which may be substituted, R 2a and R 2b do not simultaneously represent H, in a case where R 2a and R 2b are bonded to the same carbon, R 2a , R 2b , and the carbon atom to which they are bonded may form a saturated hydrocarbon ring together, R 3 represents C 1-6 alkyl which may be substituted, C 3-8 cycloalkyl which may be substituted, or phenyl which may be substituted, R 4a represents H, C 1-6 alkyl, -C(O)R 9 , or -S(O) 2 R 9 , R 4b represents H or C 1-6 alkyl, X represents CR 8 or N, R 5 , R 6 , R 7 , and R 8 are the same as or different from each other and each represent H or halogen, R 9 represents C 1-6 alkyl which may be substituted or C 3-8 cycloalkyl which may be substituted, and n represents 0 or 1.)
Arrangement of containers with open-top, single-use cardboard crates for the transportation and/or the sales display of fruit or vegetables which are to be ventilated, wherein the container arrangement also comprises reusable plastic crates, and the cardboard crates are incorporated in a stack of such reusable crates, with horizontal arresting action being provided by at least one arresting element , and wherein the arresting element projects from the underside of the floor of the cardboard crates in order, within the stack, to engage in the next crate below, and to secure the cardboard crate against horizontal displacement on the next crate below, characterized in that the arresting element is formed by an arresting strip , which has a longitudinal side and both end sides set back from the periphery of the crate floor and is adhesively bonded to the crate floor , and in that two of said arresting strips are provided, the strips each having their length extending along a narrow side of the crate floor and securing the cardboard crate both in the direction of the narrow and longitudinal sides of the crate floor .
A shirt comprising a heat retaining fabric and a heat dissipating fabric, wherein the heat retaining fabric is configured to be arranged in a portion of a front of the shirt that covers at least a part of the pectoralis major muscle, in an upper portion of a back of the shirt, and in portions of the shirt, each of which covers at least a part of the upper arm, when the shirt is worn, the heat dissipating fabric is configured to be arranged in portions of the back of the shirt and in portions of the shirt, each of which covers the axillary region, when the shirt is worn, wherein each of the portions of the back of the shirt extends from the shoulder, passes through the side of the dorsum, and covers at least a part of the infraspinatus muscle, when the shirt is worn, and is connected to a portion of the shirt which covers the axillary region, and the heat retaining fabric arranged in the upper portion of the back of the shirt is separated from the heat retaining fabric arranged in the portions of the shirt, each covering at least a part of the upper arm, by the heat dissipating fabric arranged in the portions of the back of the shirt and in the portions of the shirt which cover the axillary region; characterised in that the heat retaining fabric arranged in the portion of the front of the shirt, covering at least a part of the pectoralis major muscle, covers most of the pectoralis major muscle and is connected to the heat retaining fabric arranged in the portions of the shirt, each covering at least a part of the upper arm. wherein the heat retaining fabric is configured to be arranged in a portion of a front of the shirt that covers at least a part of the pectoralis major muscle, in an upper portion of a back of the shirt, and in portions of the shirt, each of which covers at least a part of the upper arm, when the shirt is worn, the heat dissipating fabric is configured to be arranged in portions of the back of the shirt and in portions of the shirt, each of which covers the axillary region, when the shirt is worn, wherein each of the portions of the back of the shirt extends from the shoulder, passes through the side of the dorsum, and covers at least a part of the infraspinatus muscle, when the shirt is worn, and is connected to a portion of the shirt which covers the axillary region, and the heat retaining fabric arranged in the upper portion of the back of the shirt is separated from the heat retaining fabric arranged in the portions of the shirt, each covering at least a part of the upper arm, by the heat dissipating fabric arranged in the portions of the back of the shirt and in the portions of the shirt which cover the axillary region; characterised in that the heat retaining fabric arranged in the portion of the front of the shirt, covering at least a part of the pectoralis major muscle, covers most of the pectoralis major muscle and is connected to the heat retaining fabric arranged in the portions of the shirt, each covering at least a part of the upper arm.