mhurhangee/ep-ind-claims huggingface dataset:
A robotic carton unloader (3500, 3600) for unloading cartons in a carton pile, the robotic carton unloader movable across a floor, the robotic carton unloader comprising: a mobile body; a movable robotic arm attached to the mobile body and comprising an end effector at an end thereof, the end effector configured to unload a row of cartons in a side-by-side orientation from the carton pile; a descrambling conveyor (3550, 3700, 4400, 4600) mounted on the mobile body configured to receive the row of cartons from the end effector in the side-by-side orientation, wherein the descrambling conveyor is configured to simultaneously move the row of cartons towards a rear of the robotic carton unloader, characterized in that, the descrambling conveyor is further configured to singulate the cartons while the cartons move, wherein the descrambling conveyor (3556, 4420; 3558, 4410) comprises a plurality of rows of conveyors (4422a, 4422b, 4422c, 4422d, 4422e; 4630a, 4630b, 4630c, 4630d) oriented side by side, wherein at least one of the conveyors (4422a, 4422b, 4422c, 4422d, 4422e; 4630a, 4630b, 4630c, 4630d) in the plurality of rows of conveyors is configured to move a carton carried thereon at a different speed than other conveyors (4422a, 4422b, 4422c, 4422d, 4422e; 4630a, 4630b, 4630c, 4630d) in the plurality of rows of conveyors, and wherein said at least one of the conveyors (4630a, 4630b, 4630c, 4630d; 4424a, 4424b) in the plurality of rows of conveyors is configured to move the carton traveling thereon rearwards and towards a center line of the descrambling conveyor (4600; 4400). a mobile body; a movable robotic arm attached to the mobile body and comprising an end effector at an end thereof, the end effector configured to unload a row of cartons in a side-by-side orientation from the carton pile; a descrambling conveyor (3550, 3700, 4400, 4600) mounted on the mobile body configured to receive the row of cartons from the end effector in the side-by-side orientation, wherein the descrambling conveyor is configured to simultaneously move the row of cartons towards a rear of the robotic carton unloader, characterized in that, the descrambling conveyor is further configured to singulate the cartons while the cartons move, wherein the descrambling conveyor (3556, 4420; 3558, 4410) comprises a plurality of rows of conveyors (4422a, 4422b, 4422c, 4422d, 4422e; 4630a, 4630b, 4630c, 4630d) oriented side by side, wherein at least one of the conveyors (4422a, 4422b, 4422c, 4422d, 4422e; 4630a, 4630b, 4630c, 4630d) in the plurality of rows of conveyors is configured to move a carton carried thereon at a different speed than other conveyors (4422a, 4422b, 4422c, 4422d, 4422e; 4630a, 4630b, 4630c, 4630d) in the plurality of rows of conveyors, and wherein said at least one of the conveyors (4630a, 4630b, 4630c, 4630d; 4424a, 4424b) in the plurality of rows of conveyors is configured to move the carton traveling thereon rearwards and towards a center line of the descrambling conveyor (4600; 4400).
A motorcycle tire comprising a tread portion provided on each side of the tire equator with: primary oblique grooves arranged circumferentially of the tire and extending axially outwardly from a tread center region to at least the vicinity of the tread edge; and secondary oblique grooves each disposed between the circumferentially adjacent primary oblique grooves, and each having an axially outer end positioned axially inside the axially outer ends of the primary oblique grooves, characterized in that each of the secondary oblique grooves comprises: a pair of gradually widening parts respectively extending from two extreme ends (9e,9i) of the secondary oblique groove in its longitudinal direction toward an intermediate position between the two extreme ends, while gradually increasing the groove width measured perpendicularly to the longitudinal direction; and a pair of gradually narrowing parts which are disposed between the gradually widening parts, and of which groove widths gradually decrease from the gradually widening parts toward the intermediate position. primary oblique grooves arranged circumferentially of the tire and extending axially outwardly from a tread center region to at least the vicinity of the tread edge; and secondary oblique grooves each disposed between the circumferentially adjacent primary oblique grooves, and each having an axially outer end positioned axially inside the axially outer ends of the primary oblique grooves, characterized in that each of the secondary oblique grooves comprises: a pair of gradually widening parts respectively extending from two extreme ends (9e,9i) of the secondary oblique groove in its longitudinal direction toward an intermediate position between the two extreme ends, while gradually increasing the groove width measured perpendicularly to the longitudinal direction; and a pair of gradually narrowing parts which are disposed between the gradually widening parts, and of which groove widths gradually decrease from the gradually widening parts toward the intermediate position. a pair of gradually widening parts respectively extending from two extreme ends (9e,9i) of the secondary oblique groove in its longitudinal direction toward an intermediate position between the two extreme ends, while gradually increasing the groove width measured perpendicularly to the longitudinal direction; and a pair of gradually narrowing parts which are disposed between the gradually widening parts, and of which groove widths gradually decrease from the gradually widening parts toward the intermediate position.
A method for disconnecting a multiphase electric motor of an electromechanical motor vehicle power steering system from a DC voltage source by means of a control unit for driving the electric motor, wherein the multiphase electric motor has at least three phase windings (u, v, w) with connection lines (16u, 16v, 16w), which, for operating the electric motor by means of a motor controller and a driver circuit of the control unit, can each be alternately connected via a high-side (14u, 14v, 14w) and a low-side switching element (15u, 15v, 15w) to a respective pole of the DC voltage source, and the connection lines (16u, 16v, 16w) each have at least one phase disconnection device (19, 20, 21) in order to disconnect the phase windings (u, v, w) from the DC voltage source in the event of a fault, wherein the control unit carries out the following method steps: - monitoring the switching elements (14u, 14v, 14w, 15u, 15v, 15w) for short-circuit faults during operation of the electric motor, - if a short-circuit fault has been determined, switching off the switching elements (14u, 14v, 14w, 15u, 15v, 15w), - determining whether the switching element causing the short-circuit fault is a high-side (14u, 14v, 14w) or a low-side switching element (15u, 15v, 15w), - switching on at least a second of the high-side (14u, 14v, 14w) or correspondingly at least a second of the low-side switching elements (15u, 15v, 15w) in addition to the high-side or low-side switching element causing the short-circuit fault in order to brake the electric motor, - switching off the switching elements (14u, 14v, 14w, 15u, 15v, 15w) after a selectable braking period has elapsed, - opening the phase disconnection devices (19, 20, 21). - monitoring the switching elements (14u, 14v, 14w, 15u, 15v, 15w) for short-circuit faults during operation of the electric motor, - if a short-circuit fault has been determined, switching off the switching elements (14u, 14v, 14w, 15u, 15v, 15w), - determining whether the switching element causing the short-circuit fault is a high-side (14u, 14v, 14w) or a low-side switching element (15u, 15v, 15w), - switching on at least a second of the high-side (14u, 14v, 14w) or correspondingly at least a second of the low-side switching elements (15u, 15v, 15w) in addition to the high-side or low-side switching element causing the short-circuit fault in order to brake the electric motor, - switching off the switching elements (14u, 14v, 14w, 15u, 15v, 15w) after a selectable braking period has elapsed, - opening the phase disconnection devices (19, 20, 21).
Monodispersed lanthanide based upconverting microrods selected from β-NaYF 4:Yb 3+, Er 3+ and β-NaYF 4:Yb 3+, Tm 3+, capped with organic ligand consisting of oleic acid, for making security tags and for sensing application, wherein the aspect ratio of said microrods β-NaYF 4:Yb 3+, Er 3+ is in the range of 6 to 12 and the aspect ratio of said microrods β-NaYF 4:Yb 3+, Tm 3+ is in the range of 3 to 7.
Arrangement for controlling a device of motor vehicles (4 - 7) respectively via a wireless communication connection within a communication region of an apparatus comprising a communication unit, with several devices, of which respectively one is arranged in a motor vehicle (4 - 7), wherein the arrangement comprises the apparatus and the devices, wherein the communication unit of the apparatus is designed, by sending out a wireless signal, to transpose the respective device of the motor vehicles (4 - 7) from a resting mode into an active mode, wherein a controlling device of the apparatus, or the devices are respectively designed, in the active mode, to specify a frequency to be saved in a database of the apparatus, and/or a channel (17 - 20) for sending and/or receiving the wireless signal, wherein after the specifying of the frequency and/or of the channel (17 - 20) the signal sent by the communication unit of the apparatus can be received by a communication unit of the respective device only on the specified frequency and/or the specified channel (17 - 20) and the device can only then be transposed out of the resting mode into the active mode.
A transmission method for arranging a fixed symbol at a predetermined position with respect to a data symbol to generate and transmit a block symbol, the transmission method comprising: a block symbol arrangement step of arranging a plurality of fixed symbols and data symbols in a complex plane, the fixed symbols with the phase and amplitude being fixed; an interpolation step of performing interpolation processing on the block symbol; and a transmission step of generating a single carrier block signal from the block symbol interpolated in the interpolation step and transmitting the single carrier block signal, wherein, in the block symbol arrangement step, no Cyclic Prefix is added into the block symbol, the fixed symbols are divided into a first symbol group and a second symbol group, wherein the fixed symbols of the first symbol group are continuously arranged in a last portion of the block symbol, and the fixed symbols of the second symbol group are continuously arranged from a first symbol in the block symbol. a block symbol arrangement step of arranging a plurality of fixed symbols and data symbols in a complex plane, the fixed symbols with the phase and amplitude being fixed; an interpolation step of performing interpolation processing on the block symbol; and a transmission step of generating a single carrier block signal from the block symbol interpolated in the interpolation step and transmitting the single carrier block signal, wherein, in the block symbol arrangement step, no Cyclic Prefix is added into the block symbol, the fixed symbols are divided into a first symbol group and a second symbol group, wherein the fixed symbols of the first symbol group are continuously arranged in a last portion of the block symbol, and the fixed symbols of the second symbol group are continuously arranged from a first symbol in the block symbol.
A closure device having a closure element for closing an opening (5, 6), surrounded by a valve seat (3, 4) of the closure device, of the closure device, wherein the closure device has an opening state of the closure element, in which the closure element frees, at least partially, in particular completely, the opening (5, 6) for the passage of an object through the opening (5, 6), and an intermediate state of the closure element, in which the closure element is brought into alignment with the opening (5, 6) without contact with the valve seat (3, 4), and a closing state of the closure element, in which the closure element at least contacts the valve seat (3, 4) by means of a seal (7, 8) of the closure device, wherein the seal (7, 8) has a hollow space which can be acted upon by a pressure source of the closure device using a pressure medium, and the closure device has a suction device for drawing off the pressure medium from the hollow space of the seal (7, 8), characterized in that a guide of the closure device, along which the closure element is movable between the opening state and the intermediate state, has at least one release region for the closing state, in which an element, guided by the guide, of the closure element is released to enable pressing of the closure element against the valve seat (3, 4).
A method for invalidating an electronic key for access to a physical space, the method being performed in an invalidation device (1, 1a, 1b) forming part of a mobile phone, the invalidation device being one of a plurality of invalidation devices performing the method, the method comprising the steps of: receiving a central invalidation command from a central server, the central invalidation command comprising an identifier of an electronic key, the central invalidation command indicating that the electronic key is a lost key to be invalidated; discovering a presence of the electronic key over short range radio; transmitting a local invalidation command to the electronic key only when an identity of the discovered electronic key matches the identifier of the central invalidation command, the local invalidation command causing the electronic key to invalidate itself; receiving a local confirmation message from the electronic key, the local confirmation message indicating a successful invalidation; and transmitting a central confirmation message to the central server, the central confirmation message indicating a successful invalidation, wherein the central confirmation message comprises an indicator of a position of the invalidation device (1, 1a, 1b). receiving a central invalidation command from a central server, the central invalidation command comprising an identifier of an electronic key, the central invalidation command indicating that the electronic key is a lost key to be invalidated; discovering a presence of the electronic key over short range radio; transmitting a local invalidation command to the electronic key only when an identity of the discovered electronic key matches the identifier of the central invalidation command, the local invalidation command causing the electronic key to invalidate itself; receiving a local confirmation message from the electronic key, the local confirmation message indicating a successful invalidation; and transmitting a central confirmation message to the central server, the central confirmation message indicating a successful invalidation, wherein the central confirmation message comprises an indicator of a position of the invalidation device (1, 1a, 1b).
A system for remotely monitoring heating, ventilation, and air conditioning equipment in a building, the system comprising: at least one item of heating, ventilation, and air conditioning equipment; and a non-PLC controller communicably connected to the at least one item of heating, ventilation, and air conditioning equipment to receive data from the heating, ventilation, and air conditioning equipment, the non-PLC controller having a web server, a microprocessor and a memory storing a computer program executable by the microprocessor; and a Human Machine Interface, HMI, providing communication connectivity to the non-PLC controller; wherein the computer program comprises computer instructions to: gather data from the connected heating, ventilation, and air conditioning equipment; capture the data in CGI scripts; and populate the data into tags provided in an HTML web page generated by the web server of the non-PLC controller; and permit a user to access the web server using an interface device, the interface device being a local interface device or a remote interface device;, characterized in that the non-PLC controller performs tasks that run independently of each other; the HMI performs tasks that run independently of each other, data flows between the non-PLC controller and the HMI are controlled, wherein data files of the HMI are kept up-to-date for providing a real time information, wherein the HMI acts as a server and performs a master feature, wherein the computer program further comprises computer instructions to provide_identical real-time information to both the local interface devices and the remote interface devices. at least one item of heating, ventilation, and air conditioning equipment; and a non-PLC controller communicably connected to the at least one item of heating, ventilation, and air conditioning equipment to receive data from the heating, ventilation, and air conditioning equipment, the non-PLC controller having a web server, a microprocessor and a memory storing a computer program executable by the microprocessor; and gather data from the connected heating, ventilation, and air conditioning equipment; capture the data in CGI scripts; and populate the data into tags provided in an HTML web page generated by the web server of the non-PLC controller; and permit a user to access the web server using an interface device, the interface device being a local interface device or a remote interface device;, characterized in that the non-PLC controller performs tasks that run independently of each other; the HMI performs tasks that run independently of each other, data flows between the non-PLC controller and the HMI are controlled, wherein data files of the HMI are kept up-to-date for providing a real time information, wherein the HMI acts as a server and performs a master feature, wherein the computer program further comprises computer instructions to provide_identical real-time information to both the local interface devices and the remote interface devices.
A cookie precursor comprising a first dough mix and a second dough mix in a ratio by weight of from 80:20 to 50:50, wherein the first dough mix comprises from 30 to 80 wt% of flour, and wherein the second dough mix comprises: (i) less than 5 wt% of flour, preferably substantially no flour, (ii) one or more starches and fibers in a total amount of from 5 to 20wt%, and (iii) a fat blend having a Solid Fat Content of at least 20 wt% at 20 oC, wherein the second dough mix comprises fibers in an amount such that the amount by weight included in the second dough mix, expressed in g fibers for 100g of dough, multiplied by the water holding capacity of the fiber, expressed in g water by g of fibre, is at least 10, and wherein the second dough mix forms one or more discrete regions within the first dough mix, and preferably wherein the second dough mix is entirely encompassed by the first dough mix.. (i) less than 5 wt% of flour, preferably substantially no flour, (ii) one or more starches and fibers in a total amount of from 5 to 20wt%, and (iii) a fat blend having a Solid Fat Content of at least 20 wt% at 20 oC,
Objective of an angularly viewing, rigid endoscope, comprising a prism arrangement consisting of two adjoining prisms (4, 7), which lie against each other at flat contact surfaces (6, 16) that are at an angle to the axis of the objective, wherein the distal prism has a distal end face, which is perpendicular to the viewing direction of the objective, from which distal end face beams incident thereon enter the proximal prism through the distal prism and through a passage area of the contact surfaces (6, 16) and after being reflected twice in said the proximal prism at a first mirror on an angled surface and at a second mirror on the contact surface, exit through a surface perpendicular to the axis of the objective in the direction of the axis of the objective, the second mirror is arranged outside of the passage area, characterised in that - an absorption layer is arranged in the plane (6, 16) of the second mirror in a surface area located between the mirror and the passage area. - an absorption layer is arranged in the plane (6, 16) of the second mirror in a surface area located between the mirror and the passage area.
A Doppler ultrasound system for diagnosis of a carotid artery comprising: a probe comprising a two dimensional array of ultrasonic transducer elements arranged in rows and columns of elements in a common plane, wherein the transducer elements exhibit faces from which ultrasound waves are transmitted and received; a beamformer coupled to the elements of the array and adapted to operate the elements independently to transmit pulses and receive Doppler signals from beneath each element; a Doppler processor, coupled to the beamformer and responsive to the received Doppler signals to produce a Doppler power or velocity value for each transducer element; a flow image processor responsive to the Doppler values for the transducer elements to produce a spatial Doppler vessel map; and a display for displaying the Doppler vessel map; wherein the beamformer is adapted to operate each element in a pulsed wave mode and to operate the elements independently in a non-phased manner, characterized in that the faces of the transducer elements are tilted at an angle of 30 to 60 degrees with respect to an axis which is normal to the common plane. a probe comprising a two dimensional array of ultrasonic transducer elements arranged in rows and columns of elements in a common plane, wherein the transducer elements exhibit faces from which ultrasound waves are transmitted and received; a beamformer coupled to the elements of the array and adapted to operate the elements independently to transmit pulses and receive Doppler signals from beneath each element; a Doppler processor, coupled to the beamformer and responsive to the received Doppler signals to produce a Doppler power or velocity value for each transducer element; a flow image processor responsive to the Doppler values for the transducer elements to produce a spatial Doppler vessel map; and a display for displaying the Doppler vessel map; wherein the beamformer is adapted to operate each element in a pulsed wave mode and to operate the elements independently in a non-phased manner, characterized in that the faces of the transducer elements are tilted at an angle of 30 to 60 degrees with respect to an axis which is normal to the common plane.
Device for tissue fusion or coagulation by means of high-frequency alternating current, with an electrical source having an output at which it is configured to supply, for at least part of the time, a high-frequency AC voltage with a negative internal resistance, with at least one electrode which is connected to the output and to achieve a surgical effect is to be brought into interaction with a biological tissue, with at least one counter electrode which is connected to the output and is to be brought into electrical connection with the biological tissue, with an impedance sensor for continuous determination of the electrical tissue resistance (R a) being set between the electrode and the counter electrode, wherein the impedance sensor is configured to generate an impedance signal (SR a) characteristic of the electrical resistance, characterised in that the device has a characteristic curve block which is connected to the control input of the source and which, using the impedance signal (SR a) output by the impedance sensor, supplies said source with an output voltage signal (su a) which lies at an input of the source and establishes the value of the voltage (u a) output by the electrical source, wherein the characteristic curve block embodies a functional correlation between the output voltage signal (su a) and the impedance signal (SR a), and wherein the functional correlation contains parameters, wherein the parameters are an idle voltage (u 0), a reference current (i 0) and a characteristic curve exponent, wherein the functional correlation is given by the equation: u a = u 0 − u 0 R 0 ⋅ i 0 u 0 N wherein the characteristic curve exponent is a positive or a negative figure different from zero.