mhurhangee/ep-ind-claims huggingface dataset:
A saddle type vehicle comprising a pair of left and right seat rails which constitute a part of a body frame and on which a tandem type rider seat is supported, a pair of passenger grips which are attached to the left and right seat rails on left and right sides to be gripped by a pillion passenger seated on a rear portion of the rider seat, and a carrier disposed rearwardly of the rider seat so as to load luggage thereon, the passenger grip integrally has a passenger grip base portion which extends in the fore-and-aft direction and is attached to a rear portion of the seat rail, the carrier is provided integrally with a pair of left and right attachment arm portions so that the attachment arm portions extend forward on the inner side of the passenger grip base portions of the passenger grips, the attachment arm portions are each provided with a pair of front and rear attachment holes (35, 36) at two positions spaced from each other along the fore-and-aft direction, the attachment arm portions are detachably attached to the passenger grip base portions of the pair of left and right passenger grips by bolts (37, 38) passed through the attachment holes (35, 36), so that the carrier connects left and right passenger grips.
Method for testing a control device, in which sensor data are transmitted to a real or simulated control device via a network connection, which sensor data are calculated by simulation by means of a data processing system, characterised in that the simulation of the sensor data is carried out at least partially with at least one graphics processor of at least one graphics processor unit of the data processing system and the simulated sensor data are coded in image data, which are output via a visualization interface to a data converter unit, in particular, which simulates a visualization unit connected to the visualization interface and by means of the data converter unit the received image data are converted into the packet data containing the sensor data, which are transmitted packet-based, in particular according to the TCP/IP or UDP/IP protocol via the network connection to the control device.
A method, comprising: obtaining a first image (202, 302); obtaining a second image (204, 304); determining a deformation field using the first (202, 302) and second (204, 304) images; and determining a transformation matrix using the deformation field, wherein the transformation matrix is determined using a processor (54, 1104); wherein the deformation field is for a plurality of control points that are a subset of all points in the first image (202, 302) or the second image (204, 304), and a number of degrees of freedom associated with the transformation matrix is less than a number of degrees of freedom associated with the deformation field. obtaining a first image (202, 302); obtaining a second image (204, 304); determining a deformation field using the first (202, 302) and second (204, 304) images; and determining a transformation matrix using the deformation field, wherein the transformation matrix is determined using a processor (54, 1104);
Method for controlling an elevator installation comprising a plurality of cabins which can each stop at a number of floors, calls placed outside the cabins being assigned to one of the cabins by means of an elevator controller on the basis of at least one assignment criterion, the current traffic situation of the elevator installation being taken into account during the assignment, characterized in that a forecast of a future traffic situation of the elevator installation is created and is taken into account during the assignment, the forecast being created taking into account personal information relating to persons who are in a predetermined environment of the elevator installation or a section of the elevator installation or enter a predetermined environment of the elevator installation or move away from a predetermined environment of the elevator installation, the personal information being obtained by means of at least one separation device (140, 142, 144) in the environment of the elevator installation, and at least one personnel lock (142, 144) and/or at least one barrier installation being provided as the separation apparatus.
A water treatment system configured for use with a pool, the water treatment system comprising: an electrolytic chlorine generator; an ozone generator; and a treatment assembly including a tube-shaped tank, the tank comprising: a first fluid passageway including the electrolytic chlorine generator; a second fluid passageway including a venturi structure (2012A, 2012B) with a suction inlet configured to receive ozone gas from the ozone generator; a fluid inlet in communication with the first and second fluid passageways; and a fluid outlet in communication with the first and second fluid passageways. an electrolytic chlorine generator; an ozone generator; and a treatment assembly including a tube-shaped tank, the tank comprising: a first fluid passageway including the electrolytic chlorine generator; a second fluid passageway including a venturi structure (2012A, 2012B) with a suction inlet configured to receive ozone gas from the ozone generator; a fluid inlet in communication with the first and second fluid passageways; and a fluid outlet in communication with the first and second fluid passageways. a first fluid passageway including the electrolytic chlorine generator; a second fluid passageway including a venturi structure (2012A, 2012B) with a suction inlet configured to receive ozone gas from the ozone generator; a fluid inlet in communication with the first and second fluid passageways; and a fluid outlet in communication with the first and second fluid passageways.
A method comprising: - monitoring, by a monitoring circuit in a contactless front-end, a power supply to a secure element connected to the CLF when the SE is receiving a low power from the CLF; - detecting, by the monitoring circuit, an under-voltage condition for the SE, wherein the SE receives power lower than required for operation; and - initiating, by a management module in the CLF connected to the monitoring circuit and the SE, a SE management technique, wherein the CLF implements the SE management technique through a communication interface connected to the SE, the method further comprising: - triggering, by the monitoring circuit, an under-voltage flag in a register in the CLF connected to the monitoring circuit and the management module when the under-voltage condition is detected; - sending, by the register, the under-voltage flag to the management module; and - determining, by the management module, that the under-voltage flag is valid; and - conducting the initiating step when the management module determines that the under-voltage flag is valid, wherein the determining step further comprises: - resetting, by the management module, the under-voltage flag in the register; waiting for a defined period; - loading, by the management module, the reset under-voltage flag after the defined period; and - determining, by the management module, whether the reset under-voltage flag was triggered. - monitoring, by a monitoring circuit in a contactless front-end, a power supply to a secure element connected to the CLF when the SE is receiving a low power from the CLF; - detecting, by the monitoring circuit, an under-voltage condition for the SE, wherein the SE receives power lower than required for operation; and - initiating, by a management module in the CLF connected to the monitoring circuit and the SE, a SE management technique, wherein the CLF implements the SE management technique through a communication interface connected to the SE, the method further comprising: - triggering, by the monitoring circuit, an under-voltage flag in a register in the CLF connected to the monitoring circuit and the management module when the under-voltage condition is detected; - sending, by the register, the under-voltage flag to the management module; and - determining, by the management module, that the under-voltage flag is valid; and - conducting the initiating step when the management module determines that the under-voltage flag is valid, wherein the determining step further comprises: - resetting, by the management module, the under-voltage flag in the register; waiting for a defined period; - loading, by the management module, the reset under-voltage flag after the defined period; and - determining, by the management module, whether the reset under-voltage flag was triggered.
A Stirling engine of a twin-cylinder α type comprising: two cylinders (20, 30) that are arranged linearly and parallel to each other and are arranged to align in an aligning direction and extend in an extending direction; and a heat exchanger comprising a tube group having a plurality of tubes configured to connect the two cylinders (20, 30) to each other and allow a working fluid of the Stirling engine to flow between the two cylinders (20, 30), and wherein the tube group comprises a rising section extending upward, a falling section extending downward, and a connecting section connecting the rising section and the falling section in a turn-back manner, where the tube group is regarded as extending from one end of the Stirling engine, characterized in that the rising section is located along a first plane parallel to the aligning direction of the cylinders (20, 30) and the extending direction of the cylinders (20, 30), and the falling section is located along a second plane parallel to the first plane. two cylinders (20, 30) that are arranged linearly and parallel to each other and are arranged to align in an aligning direction and extend in an extending direction; and a heat exchanger comprising a tube group having a plurality of tubes configured to connect the two cylinders (20, 30) to each other and allow a working fluid of the Stirling engine to flow between the two cylinders (20, 30), and wherein the tube group comprises a rising section extending upward, a falling section extending downward, and a connecting section connecting the rising section and the falling section in a turn-back manner, where the tube group is regarded as extending from one end of the Stirling engine, characterized in that the rising section is located along a first plane parallel to the aligning direction of the cylinders (20, 30) and the extending direction of the cylinders (20, 30), and the falling section is located along a second plane parallel to the first plane.
A method for forming packages of flexible material with a first side gusset and a second side gusset starting from a strip coming from a reel having a sliding direction, said method comprising the following steps: a) making said first gusset by means of folding close to a first side edge of said strip, b) making said second gusset by means of folding said strip; said method being characterized in that said step b) is performed on a portion of said strip which extends in the sliding direction after said step a) was performed on said portion. a) making said first gusset by means of folding close to a first side edge of said strip, b) making said second gusset by means of folding said strip;
A shrinking apparatus for shrinking packaging means around an article or a set of articles wherein the shrinking apparatus comprises at least one transport path for the articles or sets of articles, on which transport path articles wrapped in packaging means are transported in a transport direction, and wherein the shrinking apparatus comprises at least two shaft walls (30-n) arranged on both sides along the transport path, wherein at least one shrinking means distribution apparatus with a shrinking means outlet area is arranged above each shaft wall (30-n), and wherein each shaft wall (30-n) has at least one outflow surface with a plurality of shrinking means outlet openings, the outflow surface in each case facing the interior space of the shrinking apparatus, wherein shrinking means is conductible by way of the shrinking means distribution apparatus into the interior space of the shaft walls and by way of the outflow surface onto the articles wrapped in packaging means in the interior space of the shrinking apparatus, characterised in that the shaft walls (35-n) each consist of at least three shaft chamber modules, which are arranged in transport direction in a row one after the other, wherein each of the shaft chamber modules are module cassettes, each of the module cassettes comprising two lateral surfaces arranged parallel to the transport direction, wherein at least one of the lateral surfaces is formed as an outflow surface, a top side surface, a bottom side surface, a front cross-sectional side surface and a back cross-sectional side surface, wherein the cross-sectional side surfaces (54, 56) are arranged at least largely orthogonal to the transport direction, wherein the top side surfaces each have a connection opening, by way of which the shrinking means is conductible from the shrinking means distribution apparatus into the at least three shaft chamber modules of the shaft wall (35-n), wherein the top side surfaces of at least two adjacent shaft chamber modules form a continuous, common connection opening for fastening to the shrinking means distribution apparatus, wherein the at least two adjacent shaft chamber modules are arranged at the shrinking means outlet area of the shrinking means distribution apparatus by way of their common connection opening and are exchangeably fastened by means of a changing system.
A method for connecting a household appliance to a wireless home network, wherein the household appliance makes available a temporary network with a hotspot identification, wherein a user terminal is connected to the household appliance via the temporary network by utilizing the hotspot identification, wherein the user terminal transmits network access information to the household appliance, and wherein the household appliance closes the temporary network after the reception of the network access information and logs on to the home network by utilizing the received network access information, characterized in that the hotspot identification of the temporary network is randomly generated by means of a random character generator and output in the form of an optical code on the screen of the household appliance, wherein the random character generator generates the hotspot identification immediately before the temporary network is established or at the moment the temporary network is established.
A system for mapping innervated areas in a renal artery based on the position(s) of electrodes on a catheter, comprising: (i) a catheter for mapping renal nerves distributed on a renal blood vessel, comprising: a catheter tip comprising a plurality of electrodes; said plurality of electrodes being disposed along said catheter tip to form at least one loop; (ii) one or more measuring devices for measuring one or more physiological parameters associated with innervation of said renal artery; (iii) a computing device coupled to said one or more measuring devices and configured for computing any increase or decrease in the physiological parameters against a baseline; characterized in that the catheter is configured to deliver an electrical stimulation between any pair of electrodes among said plurality of electrodes, and in that the system comprises: (iv) a display device configured for displaying the location of a parasympathetic or sympathetic nerve innervating said renal artery, said location being based on the position(s) of electrodes on said catheter; wherein said display device comprises a display screen configured for showing results of electrical stimulation applied between any pair of electrodes among said plurality of electrodes. (i) a catheter for mapping renal nerves distributed on a renal blood vessel, comprising: a catheter tip comprising a plurality of electrodes; said plurality of electrodes being disposed along said catheter tip to form at least one loop; a catheter tip comprising a plurality of electrodes; said plurality of electrodes being disposed along said catheter tip to form at least one loop; (ii) one or more measuring devices for measuring one or more physiological parameters associated with innervation of said renal artery; (iii) a computing device coupled to said one or more measuring devices and configured for computing any increase or decrease in the physiological parameters against a baseline; characterized in that the catheter is configured to deliver an electrical stimulation between any pair of electrodes among said plurality of electrodes, and in that the system comprises: (iv) a display device configured for displaying the location of a parasympathetic or sympathetic nerve innervating said renal artery, said location being based on the position(s) of electrodes on said catheter; wherein said display device comprises a display screen configured for showing results of electrical stimulation applied between any pair of electrodes among said plurality of electrodes.
A sensor installing structure for installing a sensor module collecting data about states of a tire at an installation position on the inner side of the tire, the structure comprising: a sensor module housing accommodating the sensor module; and two or more sensor patches having a bonding portion that is attached to the inner side of a tire and a pressing portion that brings and maintains the sensor module housing in close contact with an installation position, wherein the pressing portion presses down the top of the sensor module housing by extending and contracting, wherein the sensor module housing has a fixing projection having a predetermined shape on the top, the sensor patch has a sensor insertion hole in which the fixing projection is inserted, and the sensor insertion hole and the fixing projection are fitted to each other to prevent the sensor module housing from laterally separating out of the installation position, wherein the two or more sensor patches are arranged across each other and the pressing portions are all disposed over the installation position, wherein the sensor installing structure further include an anti-pressing portion-tire attachment structure including an ejector adapted to be pulled up for removing the anti-pressing portion-tire attachment structure through the sensor insertion hole after the bonding portion of the sensor patch is attached to the inner side of a tire by vulcanization. a sensor module housing accommodating the sensor module; and two or more sensor patches having a bonding portion that is attached to the inner side of a tire and a pressing portion that brings and maintains the sensor module housing in close contact with an installation position, wherein the pressing portion presses down the top of the sensor module housing by extending and contracting, wherein the sensor module housing has a fixing projection having a predetermined shape on the top, the sensor patch has a sensor insertion hole in which the fixing projection is inserted, and the sensor insertion hole and the fixing projection are fitted to each other to prevent the sensor module housing from laterally separating out of the installation position, wherein the two or more sensor patches are arranged across each other and the pressing portions are all disposed over the installation position, wherein the sensor installing structure further include an anti-pressing portion-tire attachment structure including an ejector adapted to be pulled up for removing the anti-pressing portion-tire attachment structure through the sensor insertion hole after the bonding portion of the sensor patch is attached to the inner side of a tire by vulcanization.
An air seal system for locating between a rotor blade assembly and an inner surface of a casing of a gas turbine engine, the seal system comprising: a substrate; a bond coat disposed on the substrate; a ceramic interlayer disposed inboard of the bond coat; an erosion resistant thermal barrier coating (E-TBC) layer disposed on the ceramic interlayer; and an abradable layer disposed inboard of the erosion resistant thermal barrier coating (E-TBC) layer, wherein a transition layer is formed between the erosion resistant thermal barrier coating (E-TBC) layer and the abradable layer, the transition layer having a mixture of properties of the erosion resistant thermal barrier coating (E-TBC) layer and the abradable layer. a substrate; a bond coat disposed on the substrate; a ceramic interlayer disposed inboard of the bond coat; an erosion resistant thermal barrier coating (E-TBC) layer disposed on the ceramic interlayer; and an abradable layer disposed inboard of the erosion resistant thermal barrier coating (E-TBC) layer, wherein a transition layer is formed between the erosion resistant thermal barrier coating (E-TBC) layer and the abradable layer, the transition layer having a mixture of properties of the erosion resistant thermal barrier coating (E-TBC) layer and the abradable layer.
A treatment apparatus for correcting a refractive error of an eye comprising: - a laser device for separating corneal tissue by means of laser radiation; - a control device designed to control the laser device to emit the laser radiation for cutting out and/or ablating a volume out of the surface of the cornea of the eye in dependency on a measured pachymetry and/or topography of the cornea and the refractive error of the eye, wherein the volume is always to be located outside of a pupil area of the eye and whereby the cut-out and/or ablated volume in the surface of the cornea results in a shape of a closed ring, a partial ring, a crescent, or a crescent shaped closed ring thereby reducing the area of the surface of the cornea. - a laser device for separating corneal tissue by means of laser radiation; - a control device designed to control the laser device to emit the laser radiation for cutting out and/or ablating a volume out of the surface of the cornea of the eye in dependency on a measured pachymetry and/or topography of the cornea and the refractive error of the eye, wherein the volume is always to be located outside of a pupil area of the eye and whereby the cut-out and/or ablated volume in the surface of the cornea results in a shape of a closed ring, a partial ring, a crescent, or a crescent shaped closed ring thereby reducing the area of the surface of the cornea.
Method for determining the amount of a liquid reducing agent for exhaust-gas purification that is removed from a tank per unit time, wherein the reducing agent is fed by a pump to a return valve in the flow direction and the return valve directs the reducing agent to a return line or to an injection line, wherein an intermediate store is arranged in the injection line and the reducing agent is fed discontinuously from the intermediate store to an exhaust gas of an internal combustion engine, comprising at least the following steps: - feeding the reducing agent to the exhaust gas via the injection line, - simultaneously detecting time-dependent pressures respectively at at least two points (28, 29) in the injection line downstream of the intermediate store, - determining the fed amount of reducing agent per unit time from the detected time-dependent pressures. - feeding the reducing agent to the exhaust gas via the injection line, - simultaneously detecting time-dependent pressures respectively at at least two points (28, 29) in the injection line downstream of the intermediate store, - determining the fed amount of reducing agent per unit time from the detected time-dependent pressures.