mhurhangee/patent-ind-claim-en huggingface dataset:
Anti-constipation and anti-flatulence device, comprising at least one piston with a support foot at one end, intended to be placed in use on a patient's belly , and movement means of said piston , wherein said piston is movably mounted inside an outer casing , the movement means being configured so that said piston passes from a condition of maximum extraction from the outer casing of the support foot , to a condition of minimum extraction and/or insertion of the support foot and vice versa and such that, in the maximum extraction condition, in use, said support foot translates linearly along a work plane, which work plane substantially identifies the patient's belly during use, said movement means comprising a rack cooperating with a pinion , said rack being integral with and mounted inside the outer casing and, in use, arranged entirely in a plane perpendicular to said work plane, with said rack forming a closed rectangular path with at least one side parallel to said work plane, said pinion being integral with said piston . comprising at least one piston with a support foot at one end, intended to be placed in use on a patient's belly , and movement means of said piston , wherein said piston is movably mounted inside an outer casing , the movement means being configured so that said piston passes from a condition of maximum extraction from the outer casing of the support foot , to a condition of minimum extraction and/or insertion of the support foot and vice versa and such that, in the maximum extraction condition, in use, said support foot translates linearly along a work plane, which work plane substantially identifies the patient's belly during use, said movement means comprising a rack cooperating with a pinion , said rack being integral with and mounted inside the outer casing and, in use, arranged entirely in a plane perpendicular to said work plane, with said rack forming a closed rectangular path with at least one side parallel to said work plane, said pinion being integral with said piston .
A radial flow gas turbine generator , the gas turbine generator including a shaft , an electrical generation section including a rotor and a stator , a radial flow gas turbine section including a compressor wheel and a turbine wheel fixed thereto, the shaft being supported for rotation by a single bearing arrangement , characterised in that said single bearing arrangement is provided at an axial position on the shaft that is between the rotor and the compressor wheel .
An insert holder for a machine tool comprising: - a holding bar configured to be mounted in tool moving means , - a head extending the holding bar , configured to carry a cutting insert, - a force measurement module including: - a measurement body produced in said holding bar comprising a central core delimited by two cavities separating the central core on either side of the central core , the cavities having a parallelepiped shape defining first, second and third directions (X, Y, Z) perpendicular to each other, the measurement body having an elongated shape in the second direction (Y), - at least one first strain gauge fastened on a side of the central core and configured to measure a shear deformation in the third direction (Z), - at least one second strain gauge fastened on a lateral wall of one of the cavities and configured to measure an elongation-compression or shear deformation in the first direction (X), characterised in that the central core is also delimited by at least two decoupling holes shaped to decouple the deformations of the measurement body around the strain gauges , at least between the third direction (Z) and the first direction (X) and in that the thickness (d) of the central core is comprised between 5 and 20mm. - a holding bar configured to be mounted in tool moving means , - a head extending the holding bar , configured to carry a cutting insert, - a force measurement module including: - a measurement body produced in said holding bar comprising a central core delimited by two cavities separating the central core on either side of the central core , the cavities having a parallelepiped shape defining first, second and third directions (X, Y, Z) perpendicular to each other, the measurement body having an elongated shape in the second direction (Y), - at least one first strain gauge fastened on a side of the central core and configured to measure a shear deformation in the third direction (Z), - at least one second strain gauge fastened on a lateral wall of one of the cavities and configured to measure an elongation-compression or shear deformation in the first direction (X), - a measurement body produced in said holding bar comprising a central core delimited by two cavities separating the central core on either side of the central core , the cavities having a parallelepiped shape defining first, second and third directions (X, Y, Z) perpendicular to each other, the measurement body having an elongated shape in the second direction (Y), - at least one first strain gauge fastened on a side of the central core and configured to measure a shear deformation in the third direction (Z), - at least one second strain gauge fastened on a lateral wall of one of the cavities and configured to measure an elongation-compression or shear deformation in the first direction (X),
A method for maintaining a target electrochemical impedance (ECI) for a fuel cell , which corresponds to a target hydration state for the fuel cell utilizing a closed loop control system, the method comprising: determining a target electrochemical impedance (ECI) for the fuel cell based on current operating conditions; determining actual ECI for the fuel cell ; comparing actual ECI to the target ECI ; and adjusting (530-570) a cathode flow to the fuel cell based on a deviation of the actual ECI from the target ECI; characterized in that the method of determining a target ECI for the fuel cell comprises: determining an ECI for the fuel cell across a range of cathode flow rates; determining a rate of change of the ECI across the cathode flow range; and identifying a target ECI for the fuel cell as the ECI at the point where the change in the rate of change of the ECI is a maximum. determining a target electrochemical impedance (ECI) for the fuel cell based on current operating conditions; determining actual ECI for the fuel cell ; comparing actual ECI to the target ECI ; and adjusting (530-570) a cathode flow to the fuel cell based on a deviation of the actual ECI from the target ECI; determining an ECI for the fuel cell across a range of cathode flow rates; determining a rate of change of the ECI across the cathode flow range; and identifying a target ECI for the fuel cell as the ECI at the point where the change in the rate of change of the ECI is a maximum.
A locally-actuated partial stroke testing device for testing a single acting emergency isolation valve , comprising: a mechanically-operated valve configured to be manually operated and comprising a mechanical device to operate the mechanically-operated valve and locally actuate the device , the mechanical device being a push button or lever or key, the mechanically-operated valve further comprising a vent port , an input port for coupling to an air supply line to receive air, and a working port ; a flow control valve coupled to the vent port and being operable to regulate air flow from the vent port ; a local valve position indicator located on the single acting emergency isolation valve to convey position of the single acting emergency isolation valve to an operator of the mechanical device visually monitoring the valve movement via the local valve position indicator during local actuation of the device by pressing the button or moving the lever or the key, the local valve position indicator being in visual proximity to the mechanically-operated valve where the mechanically-operated valve is a 3/2 manually-operated valve or a 5/2 manually-operated valve; a 3/2 solenoid valve with a first port coupled via an air flow line to the working port ; and a working flow line connecting the second port of the 3/2 solenoid valve and a port of the single acting emergency isolation valve to provide bidirectional air flow. a mechanically-operated valve configured to be manually operated and comprising a mechanical device to operate the mechanically-operated valve and locally actuate the device , the mechanical device being a push button or lever or key, the mechanically-operated valve further comprising a vent port , an input port for coupling to an air supply line to receive air, and a working port ; a flow control valve coupled to the vent port and being operable to regulate air flow from the vent port ; a local valve position indicator located on the single acting emergency isolation valve to convey position of the single acting emergency isolation valve to an operator of the mechanical device visually monitoring the valve movement via the local valve position indicator during local actuation of the device by pressing the button or moving the lever or the key, the local valve position indicator being in visual proximity to the mechanically-operated valve where the mechanically-operated valve is a 3/2 manually-operated valve or a 5/2 manually-operated valve; a 3/2 solenoid valve with a first port coupled via an air flow line to the working port ; and a working flow line connecting the second port of the 3/2 solenoid valve and a port of the single acting emergency isolation valve to provide bidirectional air flow.
Method for producing a branching node for building construction, comprising the following steps: (A) providing a braid core, which has at least three arms and forms a branch, (B) forming a braid by overbraiding the braid core with a braiding material, wherein the braid in the region of the arms has at least two braid layers, connecting the braid to a matrix, (E) removing the braid core to form a cavity, resulting in a fibre-composite structure, (F) filling the cavity enclosed by the fibre-composite structure with a concrete mixture, and (G) curing the concrete mixture. (A) providing a braid core, which has at least three arms and forms a branch, (B) forming a braid by overbraiding the braid core with a braiding material, wherein the braid in the region of the arms has at least two braid layers, (E) removing the braid core to form a cavity, resulting in a fibre-composite structure, (F) filling the cavity enclosed by the fibre-composite structure with a concrete mixture, and (G) curing the concrete mixture.
A method for reducing noise of a wind turbine , the method comprising: determining a wind speed at the wind turbine ; determining , via a turbine controller , a nominal wind direction for producing rated power of the wind turbine ; determining a pitch angle of at least one rotor blade of the wind turbine ; determining a yaw offset for a nacelle of the wind turbine based on the wind speed and the pitch angle; and changing a yaw angle of the nacelle away from the nominal wind direction by the yaw offset when at least one of the wind speed or the pitch angle exceeds a predetermined threshold so as to reduce noise of the wind turbine and so as to limit excessive pitching and avoid an undesired associated noise increase. determining a wind speed at the wind turbine ; determining , via a turbine controller , a nominal wind direction for producing rated power of the wind turbine ; determining a pitch angle of at least one rotor blade of the wind turbine ; determining a yaw offset for a nacelle of the wind turbine based on the wind speed and the pitch angle; and changing a yaw angle of the nacelle away from the nominal wind direction by the yaw offset when at least one of the wind speed or the pitch angle exceeds a predetermined threshold so as to reduce noise of the wind turbine and so as to limit excessive pitching and avoid an undesired associated noise increase.
An in vitro method for predicting the response of a patient diagnosed with melanoma cancer, to a medicament, comprising the steps of: (a) measuring the kinase activity of a sample, previously obtained from the melanoma tumour or a metastasis thereof from said patient, by contacting said sample with a set of protein kinase substrate comprising at least the peptide markers with SEQ ID NO 11, 27, 43, 52, 69, 113 and 124 in the presence and in the absence of a kinase inhibitor, thereby providing a phosphorylation profile of said sample in the presence of said kinase inhibitor and a phosphorylation profile of said sample in the absence of said kinase inhibitor; and, (b) determining from said phosphorylation profiles in the presence and in the absence of said kinase inhibitor the differential phosphorylation level, said differential phosphorylation level predicting the response of said patient to said medicament. (a) measuring the kinase activity of a sample, previously obtained from the melanoma tumour or a metastasis thereof from said patient, by contacting said sample with a set of protein kinase substrate comprising at least the peptide markers with SEQ ID NO 11, 27, 43, 52, 69, 113 and 124 in the presence and in the absence of a kinase inhibitor, thereby providing a phosphorylation profile of said sample in the presence of said kinase inhibitor and a phosphorylation profile of said sample in the absence of said kinase inhibitor; and, (b) determining from said phosphorylation profiles in the presence and in the absence of said kinase inhibitor the differential phosphorylation level, said differential phosphorylation level predicting the response of said patient to said medicament.
A medical device , comprising: a radially expandable balloon comprising a body having an exterior surface; and a therapeutic coating disposed on at least a portion of the exterior surface, wherein the therapeutic coating comprises a therapeutic agent in combination with fatty acids of a biological oil or fat, wherein the fatty acids include omega-3 fatty acids, wherein the therapeutic coating is compositioned to adhere to the exterior surface of the radially expandable balloon wherein the medical device is suitable to be positioned adjacent to a targeted tissue location within a patient, and then transfer atraumatically directly into the targeted tissue location by a lipophilic absorptive action upon contact between the therapeutic coating and the targeted tissue location, wherein upon implantation, the therapeutic coating maintains a gel consistency. a radially expandable balloon comprising a body having an exterior surface; and a therapeutic coating disposed on at least a portion of the exterior surface, wherein the therapeutic coating comprises a therapeutic agent in combination with fatty acids of a biological oil or fat, wherein the fatty acids include omega-3 fatty acids, wherein the therapeutic coating is compositioned to adhere to the exterior surface of the radially expandable balloon wherein the medical device is suitable to be positioned adjacent to a targeted tissue location within a patient, and then transfer atraumatically directly into the targeted tissue location by a lipophilic absorptive action upon contact between the therapeutic coating and the targeted tissue location, wherein upon implantation, the therapeutic coating maintains a gel consistency.
A method for enabling restoration of an operational state on a server node , the method comprising: Intercepting , by a state directory , traffic between a client , communicably connected to the server node over a network, and the server node, where at least a part of the traffic between the server node and the client leads to establishment of the operational state on the server node; Deriving , by the state directory, the operational state of the server node by processing the intercepted traffic; Storing the derived operational state in the state directory; Detecting , by the state directory, that the server node has lost the operational state; and Providing , by the state directory, the derived operational state to the server node after detecting that the server node has lost the operational state. Intercepting , by a state directory , traffic between a client , communicably connected to the server node over a network, and the server node, where at least a part of the traffic between the server node and the client leads to establishment of the operational state on the server node; Deriving , by the state directory, the operational state of the server node by processing the intercepted traffic; Storing the derived operational state in the state directory; Detecting , by the state directory, that the server node has lost the operational state; and Providing , by the state directory, the derived operational state to the server node after detecting that the server node has lost the operational state.
A device for providing cooled drinking water, comprising a) an inflow fitting and b) a cooling means , wherein the cooling means i) is connected in a fluid conducting manner to the inflow fitting , ii) is arranged in an inflow direction upstream of the inflow fitting , and iii) comprises a heat accumulator , wherein the heat accumulator comprises a storage material, wherein the storage material is characterized by A) a change of state enthalpy A in kJ/kg, wherein A applies to a solid-liquid phase change, and B) a specific heat capacity B in kJ/(kg·K), wherein the change of state enthalpy and the specific heat capacity are determined according to DIN EN ISO 11357-1:2010-03, wherein the measurements are performed at an ambient temperature of 23°C, an ambient air pressure of 100 kPa and a relative humidity of 50%, wherein A is greater than B by a factor of at least 20 and wherein the storage material comprises acyclic alkanes in a proportion of at least 50 wt%, based on the weight of the storage material. a) an inflow fitting and b) a cooling means , i) is connected in a fluid conducting manner to the inflow fitting , ii) is arranged in an inflow direction upstream of the inflow fitting , and iii) comprises a heat accumulator , A) a change of state enthalpy A in kJ/kg, wherein A applies to a solid-liquid phase change, and B) a specific heat capacity B in kJ/(kg·K), wherein the change of state enthalpy and the specific heat capacity are determined according to DIN EN ISO 11357-1:2010-03, wherein the measurements are performed at an ambient temperature of 23°C, an ambient air pressure of 100 kPa and a relative humidity of 50%,
A compound, pharmaceutically acceptable salt or stereoisomer thereof, the compound is selected from:
Sliding window installation comprising a wall with an opening arranged therein and a window fixture secured in said opening arranged in said wall of a building, said window fixture comprising: - a window frame , comprising an upper crossmember , a lower crossmember and two vertical posts , sealing means being provided between the window frame and the opening , - a casement slidably mounted in the window frame , comprising glazing , particularly double or triple glazing, - a guiding system for guiding the casement relative to the window frame , comprising at least one guide rail arranged on the upper or lower crossmember of the window frame , wherein said at least one guide rail of the guiding system extends along the opening to outside the opening , on the outside of the building, - the casement being capable of switching from a closing position, wherein the casement fully occludes the opening left by the window frame at the opening , to an opening position, wherein the casement finds itself laterally offset relative to the opening left by the window frame , characterised in that the window frame is disposed in the opening projecting outwards from the opening so as to position the casement entirely outside the opening , on the outside of the building, the upper crossmember , the lower crossmember and the two vertical posts cooperating with the respectively upper horizontal , lower horizontal and left and right, lateral vertical , inner faces of the opening, leaving an opening in the building. - a window frame , comprising an upper crossmember , a lower crossmember and two vertical posts , sealing means being provided between the window frame and the opening , - a casement slidably mounted in the window frame , comprising glazing , particularly double or triple glazing, - a guiding system for guiding the casement relative to the window frame , comprising at least one guide rail arranged on the upper or lower crossmember of the window frame , wherein said at least one guide rail of the guiding system extends along the opening to outside the opening , on the outside of the building, - the casement being capable of switching from a closing position, wherein the casement fully occludes the opening left by the window frame at the opening , to an opening position, wherein the casement finds itself laterally offset relative to the opening left by the window frame , characterised in that the window frame is disposed in the opening projecting outwards from the opening so as to position the casement entirely outside the opening , on the outside of the building, the upper crossmember , the lower crossmember and the two vertical posts cooperating with the respectively upper horizontal , lower horizontal and left and right, lateral vertical , inner faces of the opening, leaving an opening in the building.
A cardiac monitoring and therapy system , comprising: a first unit adapted for monitoring a cardiac condition of a patient via ECG monitoring circuitry and configured for providing processing or control for CPR functions, the first unit configured to provide an indication of the patient's condition and further configured to store chest compression performance data in a memory of the first unit ; a second unit separate from and in communication with the first unit, the second unit comprising an energy delivery unit and at least two high-voltage defibrillation electrodes operatively connected to the energy delivery unit and adapted to be placed on the patient; and a processor in communication with the at least two high-voltage defibrillation electrodes and configured to provide at least one of defibrillation and pacing pulses to the patient via at the least two high-voltage defibrillation electrodes, the system being configured to transfer the chest compression performance data between the memory and the second unit . a first unit adapted for monitoring a cardiac condition of a patient via ECG monitoring circuitry and configured for providing processing or control for CPR functions, the first unit configured to provide an indication of the patient's condition and further configured to store chest compression performance data in a memory of the first unit ; a second unit separate from and in communication with the first unit, the second unit comprising an energy delivery unit and at least two high-voltage defibrillation electrodes operatively connected to the energy delivery unit and adapted to be placed on the patient; and a processor in communication with the at least two high-voltage defibrillation electrodes and configured to provide at least one of defibrillation and pacing pulses to the patient via at the least two high-voltage defibrillation electrodes, the system being configured to transfer the chest compression performance data between the memory and the second unit .