mhurhangee/ep-ind-claims huggingface dataset:
A medical system (100, 300) comprising internal parts (30, 32, 41,50) for implantation in a patient and external parts (10, 12, 20) for use externally to the patient, the external parts comprising an energy source equipped with a primary coil for inductively transmitting energy to the implantable parts and an external control unit for the control of the energy source, the internal parts comprising an electrically powered medical device (40, 41), an energy receiver equipped with a secondary coil for inductively receiving energy for the medical device (40, 41) from the external energy source and an internal control unit for the control of the internal parts, the system (100, 300) being arranged to determine a balance between the amount of energy received in the energy receiver and the amount of energy used by the medical device (40, 41), in which system (100, 300) the internal control unit is arranged to wirelessly transmit feedback information to the external control unit, the medical device comprising at least one of: • a current regulator arranged to keep a current constant, the system being arranged to determine a current difference between an input current to the current regulator and the current which the current regulator is arranged to keep constant, and • a voltage regulator arranged to keep a voltage constant, the system being arranged to determine a voltage difference between an input voltage to the voltage regulator and the output voltage which the voltage regulator is arranged to keep constant, wherein the internal control unit being arranged to determine said feedback information based on or relating to a first, a second, and a third parameter, with the first parameter being based on said energy balance over a certain amount of time and the second parameter being based on information relating to a coupling factor between the primary and the secondary coils and with the third parameter being based on at least one of said current difference or said voltage difference; wherein the system (100, 300) being adapted to take into account at least the first, second and third parameter to determine the amount of energy which should be transmitted by the energy source. • a current regulator arranged to keep a current constant, the system being arranged to determine a current difference between an input current to the current regulator and the current which the current regulator is arranged to keep constant, and • a voltage regulator arranged to keep a voltage constant, the system being arranged to determine a voltage difference between an input voltage to the voltage regulator and the output voltage which the voltage regulator is arranged to keep constant,
Method for braking a vehicle, in particular an electric bicycle, which can be operated by motor or with muscle power, having a hydraulic front wheel brake and a hydraulic rear wheel brake, - wherein a brake pressure of the front wheel brake, which is brought about by a driver within the vehicle by means of a front wheel brake-activation device, and/or a brake pressure of the rear wheel brake, which is brought about by means of a rear wheel brake-activation device, is changed by means of an electrohydraulic braking force-influencing device, - in that during a braking process the braking force-influencing device is actuated by an electric brake pressure-control device, and the brake pressure for the front wheel brake and/or the rear wheel brake is increased and/or reduced, and therefore the braking force thereof is increased and/or reduced, and - the brake pressure-control device receives brake pressure signals from a brake activation-detection means for the front wheel brake and one for the rear wheel brake, and improved distribution of an overall braking force (F B) to the front wheel and to the rear wheel is brought about, said distribution differing from the distribution brought about by the driver, characterized in that - one wheel of the vehicle is made to lock by means of the brake pressure-control device and is subsequently released again in order to experience braked rotation, wherein the brake pressure-control device changes repeatedly between locking and release. - wherein a brake pressure of the front wheel brake, which is brought about by a driver within the vehicle by means of a front wheel brake-activation device, and/or a brake pressure of the rear wheel brake, which is brought about by means of a rear wheel brake-activation device, is changed by means of an electrohydraulic braking force-influencing device, - in that during a braking process the braking force-influencing device is actuated by an electric brake pressure-control device, and the brake pressure for the front wheel brake and/or the rear wheel brake is increased and/or reduced, and therefore the braking force thereof is increased and/or reduced, and - the brake pressure-control device receives brake pressure signals from a brake activation-detection means for the front wheel brake and one for the rear wheel brake, and improved distribution of an overall braking force (F B) to the front wheel and to the rear wheel is brought about, said distribution differing from the distribution brought about by the driver, characterized in that - one wheel of the vehicle is made to lock by means of the brake pressure-control device and is subsequently released again in order to experience braked rotation, wherein the brake pressure-control device changes repeatedly between locking and release.
A pressure tank having a lattice structure, comprising: a tank body that has a high-pressure fluid accommodated therein and is manufactured to have a prismatic shape; and cell structures that are disposed in the tank body, are manufactured in a lattice form, arrive from one side wall of the tank body 50 to the other side wall thereof facing it, and are orthogonally arranged regularly, characterised in that the cell structure includes beam structures that arrive from one side wall of the tank body to the other side wall thereof facing it and are orthogonally arranged regularly, the beam structures are manufactured in branching type beam structures (220, 230, 240 and 290), include beams that extend from intersecting part as center in a three-dimensional orthogonal coordinate system (X, Y, and Z) structure, and the pressure tank does not have any lobes outside of cell structure. a tank body that has a high-pressure fluid accommodated therein and is manufactured to have a prismatic shape; and cell structures that are disposed in the tank body, are manufactured in a lattice form, arrive from one side wall of the tank body 50 to the other side wall thereof facing it, and are orthogonally arranged regularly, characterised in that the cell structure includes beam structures that arrive from one side wall of the tank body to the other side wall thereof facing it and are orthogonally arranged regularly, the beam structures are manufactured in branching type beam structures (220, 230, 240 and 290), include beams that extend from intersecting part as center in a three-dimensional orthogonal coordinate system (X, Y, and Z) structure, and the pressure tank does not have any lobes outside of cell structure.
A hermetic compressor comprising: an annular motor stator; a motor rotor that is disposed such that it may freely rotate in a space inside the motor stator; a casing that includes a cylindrical portion that houses the motor stator and the motor rotor; plural spot joining portions that fix the motor stator to the cylindrical portion by spot joining in a state where a clearance is secured between the motor stator and the cylindrical portion, wherein the spot joining portions are formed by spot welding and characterized in that the spot joining portions are disposed in three or more spots in a circumferential direction on an outer peripheral surface of the motor stator, the spot joining portions are disposed in plural places in an axial direction of the motor rotor on an outer peripheral surface of the motor stator, and wherein the proportion of the sum of the perimeters of the spot joining portions on a cross section that is orthogonal to a central axis of the cylindrical portion and includes the spot joining portions to the perimeter of an inner peripheral surface of the cylindrical portion is less than 10% with respect to a portion where an outer peripheral surface of the motor stator and the inner peripheral surface of the cylindrical portion face each other, and the clearance is secured at other portions except the spot joining portions. an annular motor stator; a motor rotor that is disposed such that it may freely rotate in a space inside the motor stator; a casing that includes a cylindrical portion that houses the motor stator and the motor rotor; plural spot joining portions that fix the motor stator to the cylindrical portion by spot joining in a state where a clearance is secured between the motor stator and the cylindrical portion, wherein the spot joining portions are formed by spot welding and characterized in that the spot joining portions are disposed in three or more spots in a circumferential direction on an outer peripheral surface of the motor stator, the spot joining portions are disposed in plural places in an axial direction of the motor rotor on an outer peripheral surface of the motor stator, and wherein the proportion of the sum of the perimeters of the spot joining portions on a cross section that is orthogonal to a central axis of the cylindrical portion and includes the spot joining portions to the perimeter of an inner peripheral surface of the cylindrical portion is less than 10% with respect to a portion where an outer peripheral surface of the motor stator and the inner peripheral surface of the cylindrical portion face each other, and the clearance is secured at other portions except the spot joining portions.
Method for carrying out a contact measurement on at least one tooth flank (7.1) of a gear workpiece, using a switching probe of a measuring device or using a measuring probe of a measuring device, wherein the probe comprises a probe tip, probe skid, or probe ball, comprising the following steps: - specifying a maximum region (Fmax) in relation to the tooth flank (7.1), - specifying a critical region (Fk) in relation to the tooth flank (7.1), wherein the critical region (Fk) at least partially overlaps the maximum region (Fmax), - executing relative movements using the probe, wherein the probe is guided along the tooth flank (7.1) such that - for multiple points of the tooth flank (7.1) within the maximum region (Fmax), actual measured values having a first resolution are provided, and - for multiple points of the tooth flank (7.1) within the critical region (Fk), actual measured values having a second resolution are provided, wherein the second resolution is higher than the first resolution. - specifying a maximum region (Fmax) in relation to the tooth flank (7.1), - specifying a critical region (Fk) in relation to the tooth flank (7.1), wherein the critical region (Fk) at least partially overlaps the maximum region (Fmax), - executing relative movements using the probe, wherein the probe is guided along the tooth flank (7.1) such that - for multiple points of the tooth flank (7.1) within the maximum region (Fmax), actual measured values having a first resolution are provided, and - for multiple points of the tooth flank (7.1) within the critical region (Fk), actual measured values having a second resolution are provided, wherein the second resolution is higher than the first resolution. - for multiple points of the tooth flank (7.1) within the maximum region (Fmax), actual measured values having a first resolution are provided, and - for multiple points of the tooth flank (7.1) within the critical region (Fk), actual measured values having a second resolution are provided, wherein the second resolution is higher than the first resolution.
Absolute code scale of a position encoder, in particular a linear position encoder or rotational encoder, composed of - a first absolute code sequence having a first primary code period length, which is periodically continued, and - at least one second absolute code sequence having a second primary code period length, which is periodically continued, wherein the first absolute code sequence and the at least one second absolute code sequence are codeword-foreign in relation to one another, and wherein alternately one section from the first absolute code sequence and one section from the at least one second absolute code sequence are successively arranged along the absolute code scale, and wherein, in the different sections (2/3) from the same absolute code sequence (5/6), the absolute code sequences (5/6) are each differently shifted in relation to one another along this arrangement, in particular are phase-shifted by a different fraction of the primary period length of the absolute code sequence (5/6). - a first absolute code sequence having a first primary code period length, which is periodically continued, and - at least one second absolute code sequence having a second primary code period length, which is periodically continued,
A covering substrate capable of being bonded to a rim of a container, the container including a top wall and the rim extending beyond the top wall defining a top portion of the container, the covering providing a hygienic environment at the top portion of the container, comprising: a non-metallic substrate wherein the substrate comprises a polyolefin film; a heat seal coating disposed for bonding the non-metallic substrate to the container substantially along the perimeter of the rim; and a transparent bondable material layered in part to the non-metallic substrate opposite the heat seal coating, a portion of the bondable material defining a tab therein substantially contained within the perimeter of the non-metallic substrate wherein the transparent bondable material comprises a clear polyester material; characterized in that the heat seal coating is laminated directly to the non-metallic substrate and the bondable material is layered in part directly to the substrate opposite to the heat seal coating and a graphic is laminated to the tab portion of the transparent bondable material and located between the substrate and the transparent bondable material. a non-metallic substrate wherein the substrate comprises a polyolefin film; a heat seal coating disposed for bonding the non-metallic substrate to the container substantially along the perimeter of the rim; and a transparent bondable material layered in part to the non-metallic substrate opposite the heat seal coating, a portion of the bondable material defining a tab therein substantially contained within the perimeter of the non-metallic substrate wherein the transparent bondable material comprises a clear polyester material; characterized in that the heat seal coating is laminated directly to the non-metallic substrate and the bondable material is layered in part directly to the substrate opposite to the heat seal coating and a graphic is laminated to the tab portion of the transparent bondable material and located between the substrate and the transparent bondable material.
A method for producing a sesame oil meal extract, the method comprising the steps of: producing a sesame oil meal mixture by adding a solvent to sesame oil meal; ultrasonically extracting the sesame oil meal mixture; filtering and concentrating the ultrasonically extracted extract; and drying the concentrated concentrate, wherein the solvent is water, wherein the sesame oil meal mixture is obtained by mixing the sesame oil meal to the solvent in a weight ratio (w/v) of 1:30, wherein in the ultrasonic extraction step, an ultrasonic treatment is performed under conditions of a frequency of 10 to 50 kHz, a temperature of 20°C to 30°C, 3 to 5 hours, and an amplitude of 70 to 90%, wherein in the concentration step, after the filtration using a housing filter with a filter size between 100 μm and 50 μm, the extract is concentrated under conditions of a temperature of 50°C to 60°C, a stirring of 15 to 25 RPM, a vacuum degree of -1200 to -930 Pascal (-9 to -7 torr), and an evaporation rate of 170 to 190 L/hr, and wherein in the drying step, the concentrated concentrate is lyophilized. producing a sesame oil meal mixture by adding a solvent to sesame oil meal; ultrasonically extracting the sesame oil meal mixture; filtering and concentrating the ultrasonically extracted extract; and drying the concentrated concentrate, wherein the solvent is water, wherein the sesame oil meal mixture is obtained by mixing the sesame oil meal to the solvent in a weight ratio (w/v) of 1:30, wherein in the ultrasonic extraction step, an ultrasonic treatment is performed under conditions of a frequency of 10 to 50 kHz, a temperature of 20°C to 30°C, 3 to 5 hours, and an amplitude of 70 to 90%, wherein in the concentration step, after the filtration using a housing filter with a filter size between 100 μm and 50 μm, the extract is concentrated under conditions of a temperature of 50°C to 60°C, a stirring of 15 to 25 RPM, a vacuum degree of -1200 to -930 Pascal (-9 to -7 torr), and an evaporation rate of 170 to 190 L/hr, and wherein in the drying step, the concentrated concentrate is lyophilized.
Packaging bag made of flexible plastic material, in particular for packaging medical products, having at least two bag walls and having at least two side edges, wherein the bag walls are connected to one another along their periphery at least sectionally via at least one connecting seam, wherein provision is made of a defined predetermined tear line which is configured for controlled tearing open of the packaging bag and which extends from a tear-open starting point of a first side edge in the direction of a second side edge, wherein the bag walls are connected at the second side edge via a connecting seam which has a front edge that is directed towards the first side edge, and wherein provision is made of a tear-stop arrangement having a tear-stop front edge, which is configured to stop tear propagation, in the direction of extension of the predetermined tear line, characterized in that the tear-stop front edge is arranged in front of the front edge of the connecting seam, and the front edge of the connecting seam is arranged in front of the second side edge, in the direction of extension of the predetermined tear line, and in that the tear-stop arrangement is arranged so as to adjoin or partially overlap the connecting seam of the second side edge. having at least two bag walls and having at least two side edges, wherein the bag walls are connected to one another along their periphery at least sectionally via at least one connecting seam, wherein provision is made of a defined predetermined tear line which is configured for controlled tearing open of the packaging bag and which extends from a tear-open starting point of a first side edge in the direction of a second side edge, wherein the bag walls are connected at the second side edge via a connecting seam which has a front edge that is directed towards the first side edge, and wherein provision is made of a tear-stop arrangement having a tear-stop front edge, which is configured to stop tear propagation, in the direction of extension of the predetermined tear line, characterized in that the tear-stop front edge is arranged in front of the front edge of the connecting seam, and the front edge of the connecting seam is arranged in front of the second side edge, in the direction of extension of the predetermined tear line, and in that the tear-stop arrangement is arranged so as to adjoin or partially overlap the connecting seam of the second side edge.
A method for wireless communication by a user equipment, UE, comprising: receiving (410, 1305, 1405, 1805, 1905) configuration signaling configuring the UE with a first active transmission configuration indication state indicating a quasi co-location assumption corresponding to a first beam for a control resource set and a shared data channel; performing (415, 1310, 1410, 1515, 1810, 1910) a random access channel procedure to select a second beam from a plurality of different beams; updating (420, 1315, 1415, 1520, 1815, 1915) the quasi co-location assumption for the control resource set to correspond to the second beam based at least in part on the UE supporting a single active transmission configuration indication state; and monitoring (430, 1325, 1425, 1530, 1820) the control resource set, the shared data channel, or both, using the second beam. receiving (410, 1305, 1405, 1805, 1905) configuration signaling configuring the UE with a first active transmission configuration indication state indicating a quasi co-location assumption corresponding to a first beam for a control resource set and a shared data channel; performing (415, 1310, 1410, 1515, 1810, 1910) a random access channel procedure to select a second beam from a plurality of different beams; updating (420, 1315, 1415, 1520, 1815, 1915) the quasi co-location assumption for the control resource set to correspond to the second beam based at least in part on the UE supporting a single active transmission configuration indication state; and monitoring (430, 1325, 1425, 1530, 1820) the control resource set, the shared data channel, or both, using the second beam.
Use of a shielding gas consisting of a fraction of 1.5 to 2% by volume hydrogen, 2 to 5% by volume helium and for the remainder argon for the manual TIG welding of metals, in particular for the welding of high-alloy steels.
A system for delivering fluid to a negative pressure wound therapy dressing, the system comprising: a wound dressing; a negative pressure source coupled to the wound dressing; a fluid flow device in fluid communication with the wound dressing; a control device configured to control a fluid flow from the fluid flow device; and a pressure sensor coupled to the wound dressing and to the control device, wherein the pressure sensor is configured to send a control signal to the control device and control fluid flow from the fluid flow device when the pressure sensor detects a predetermined pressure at the wound dressing; a reservoir coupled to the negative pressure source and in fluid communication with the fluid flow device characterised by a vent coupled to the reservoir and configured to selectively open the reservoir to atmosphere; and a check valve between the wound dressing and the reservoir, wherein the check valve is configured to restrict fluid flow to the reservoir when the reservoir is not at a negative pressure. a wound dressing; a negative pressure source coupled to the wound dressing; a fluid flow device in fluid communication with the wound dressing; a control device configured to control a fluid flow from the fluid flow device; and a pressure sensor coupled to the wound dressing and to the control device, wherein the pressure sensor is configured to send a control signal to the control device and control fluid flow from the fluid flow device when the pressure sensor detects a predetermined pressure at the wound dressing; a reservoir coupled to the negative pressure source and in fluid communication with the fluid flow device characterised by a vent coupled to the reservoir and configured to selectively open the reservoir to atmosphere; and a check valve between the wound dressing and the reservoir, wherein the check valve is configured to restrict fluid flow to the reservoir when the reservoir is not at a negative pressure.