mhurhangee/ep-ind-claims huggingface dataset:
Mounting box assembly for sanitary fittings comprising a mounting box for a fixed connection to a stationary mounting structure, such as a mounting frame, which mounting box has a side wall defining an interior space with a lower wall section and lateral wall sections adjoining the lower wall section upwards, and an adjusting frame with a frame wall, wherein the adjusting frame is mounted on the mounting box so as to be displaceable between two end positions in such a way that the position of the front edges of the frame wall can be adjusted to the installation situation, and wherein the adjusting frame can be fixed to the mounting box after adjustment has been effected, wherein the interior space serves to receive said sanitary fittings, wherein the adjusting frame lies with a lower frame leg with respect to the interior space on the outside relative to the lower wall section of the side wall of the mounting box, wherein the lower frame leg extends in each position below the lower wall section of the side wall, wherein the mounting box has at least one water outlet point, wherein the lower frame leg is arranged below the at least one water outlet point in such a way that any leakage water can flow from the at least one water outlet point onto the lower frame leg, characterized in that the lower wall section of the mounting box has a reinforcing flap projecting essentially at right angles from the lower wall section, the reinforcing flap being pierced by the at least one water outlet point. a mounting box for a fixed connection to a stationary mounting structure, such as a mounting frame, which mounting box has a side wall defining an interior space with a lower wall section and lateral wall sections adjoining the lower wall section upwards, and an adjusting frame with a frame wall, wherein the adjusting frame is mounted on the mounting box so as to be displaceable between two end positions in such a way that the position of the front edges of the frame wall can be adjusted to the installation situation, and wherein the adjusting frame can be fixed to the mounting box after adjustment has been effected, wherein the interior space serves to receive said sanitary fittings, wherein the adjusting frame lies with a lower frame leg with respect to the interior space on the outside relative to the lower wall section of the side wall of the mounting box, wherein the lower frame leg extends in each position below the lower wall section of the side wall, wherein the mounting box has at least one water outlet point, wherein the lower frame leg is arranged below the at least one water outlet point in such a way that any leakage water can flow from the at least one water outlet point onto the lower frame leg, characterized in that the lower wall section of the mounting box has a reinforcing flap projecting essentially at right angles from the lower wall section, the reinforcing flap being pierced by the at least one water outlet point.
A method for a User Equipment, UE, operating in a wireless communication system, the method comprising: based on uplink data being available for transmission at the UE, transmitting, to a base station, BS, a first Medium Access Control, MAC, Protocol Data Unit, PDU, including an identifier of the UE without the uplink data, based on a contention based, CB, grant configured for the UE; receiving, from the BS, a Physical Downlink Control Channel, PDCCH, addressed to a CB-Radio Network Temporary Identifier, CB-RNTI, in response to the first MAC PDU transmission, wherein the CB-RNTI is configured for the UE and is related with the CB grant; receiving a CB MAC Control Element, CE, and an uplink grant based on the PDCCH; based on the CB MAC CE including the identifier of the UE, transmitting, to the BS, the uplink data based on the uplink grant; and based on the CB MAC CE not including the identifier of the UE, transmitting, to the BS, a second MAC PDU including the identifier of the UE without the uplink data, based on the CB grant. based on uplink data being available for transmission at the UE, transmitting, to a base station, BS, a first Medium Access Control, MAC, Protocol Data Unit, PDU, including an identifier of the UE without the uplink data, based on a contention based, CB, grant configured for the UE; receiving, from the BS, a Physical Downlink Control Channel, PDCCH, addressed to a CB-Radio Network Temporary Identifier, CB-RNTI, in response to the first MAC PDU transmission, wherein the CB-RNTI is configured for the UE and is related with the CB grant; receiving a CB MAC Control Element, CE, and an uplink grant based on the PDCCH; based on the CB MAC CE including the identifier of the UE, transmitting, to the BS, the uplink data based on the uplink grant; and based on the CB MAC CE not including the identifier of the UE, transmitting, to the BS, a second MAC PDU including the identifier of the UE without the uplink data, based on the CB grant.
A clamp device of a hitch ball, comprising: a clamp unit having three clamp plates located around the hitch ball, each clamp plate having a pivotal portion on an upper end thereof, the three clamp plates being pivotably connected to a seat which has an aperture; a mask mounted to an outside of the clamp unit and having a cover located on a top thereof, the mask having a connection portion on an outside thereof, a receiver tube connected to the connection portion, and a control unit connected to the cover and having a handle, a contact unit and a board, the contact unit including two panels which are connected to the handle so as to press or release the board, the board on a top of the cover of the mask, a bolt extending through the seat and the board, and secured to the seat, the clamp unit moving upward to clamp the hitch ball or moving downward to release the hitch ball by operating the control unit. a clamp unit having three clamp plates located around the hitch ball, each clamp plate having a pivotal portion on an upper end thereof, the three clamp plates being pivotably connected to a seat which has an aperture; a mask mounted to an outside of the clamp unit and having a cover located on a top thereof, the mask having a connection portion on an outside thereof, a receiver tube connected to the connection portion, and a control unit connected to the cover and having a handle, a contact unit and a board, the contact unit including two panels which are connected to the handle so as to press or release the board, the board on a top of the cover of the mask, a bolt extending through the seat and the board, and secured to the seat, the clamp unit moving upward to clamp the hitch ball or moving downward to release the hitch ball by operating the control unit.
Control method for controlling the electric motor of an electric bicycle at least comprising the steps • detecting activation of the pushing aid by the cyclist, and • generating a torque by the electric motor in order to drive the electric bicycle in accordance with the detected activation, characterized in that the following steps are carried out • sensing an acceleration (a) of the electric bicycle in the direction of the longitudinal axis by means of a first sensor which is a force sensor which is arranged on the handlebars or on the handlebar stem, and wherein the acceleration is determined on the basis of a manual pushing or braking force, sensed with this sensor, of the cyclist, and • comparing the acceleration with an acceleration threshold value (SW a), wherein the following step is carried out as a function of upward transgression of the acceleration threshold value (SW a) • control of the electric motor in accordance with a change in the sensed acceleration (a). • detecting activation of the pushing aid by the cyclist, and • generating a torque by the electric motor in order to drive the electric bicycle in accordance with the detected activation, • sensing an acceleration (a) of the electric bicycle in the direction of the longitudinal axis by means of a first sensor which is a force sensor which is arranged on the handlebars or on the handlebar stem, and wherein the acceleration is determined on the basis of a manual pushing or braking force, sensed with this sensor, of the cyclist, and • comparing the acceleration with an acceleration threshold value (SW a), • control of the electric motor in accordance with a change in the sensed acceleration (a).
An apparatus for culturing cells using a culture medium, the apparatus comprising: a replacer that replaces the culture medium in a culture vessel held by a holder; a measurer that measures a pH of the culture medium in the culture vessel; and an instructor that gives the replacer an instruction to replace the culture medium in the culture vessel, wherein the instructor gives the instruction when the pH measured by the measurer is less than a predetermined pH threshold at a first replacement of the culture medium, and gives the instruction when the pH measured by the measurer is less than the predetermined pH threshold and an interval is less than an interval of a previous replacement of the culture medium at second and subsequent replacements of the culture medium. a replacer that replaces the culture medium in a culture vessel held by a holder; a measurer that measures a pH of the culture medium in the culture vessel; and an instructor that gives the replacer an instruction to replace the culture medium in the culture vessel, wherein the instructor gives the instruction when the pH measured by the measurer is less than a predetermined pH threshold at a first replacement of the culture medium, and gives the instruction when the pH measured by the measurer is less than the predetermined pH threshold and an interval is less than an interval of a previous replacement of the culture medium at second and subsequent replacements of the culture medium.
A method for controlling a soil working means, based on an image processing, said soil working means comprising a locomotion member and a working member, wherein the method comprises the steps of: - acquiring at least one digital image of the soil by means of digital image acquisition means installed on said working means; characterized by the steps of: - processing, by means of an electronic processing unit, the at least one digital image acquired by performing at least one convolution operation on the digital image by means of a trained convolutional neural network (300; 400; 500), wherein said neural network (300; 400; 500) comprises at least one convolutional layer and said at least one convolution operation is accomplished by means of a feed-forward of the neural network; - obtaining, by means of the electronic processing unit, at least one synthetic soil descriptor based on said processing; - generating, by means of the electronic processing unit, at least one control signal of said locomotion member or of said working member based on said synthetic soil descriptor. - acquiring at least one digital image of the soil by means of digital image acquisition means installed on said working means; characterized by the steps of: - processing, by means of an electronic processing unit, the at least one digital image acquired by performing at least one convolution operation on the digital image by means of a trained convolutional neural network (300; 400; 500), wherein said neural network (300; 400; 500) comprises at least one convolutional layer and said at least one convolution operation is accomplished by means of a feed-forward of the neural network; - obtaining, by means of the electronic processing unit, at least one synthetic soil descriptor based on said processing; - generating, by means of the electronic processing unit, at least one control signal of said locomotion member or of said working member based on said synthetic soil descriptor.
A medical device configured to: deliver electrical stimulation therapy comprising a first train of electrical stimulation pulses to a patient, wherein the first train of electrical stimulation pulses comprises a first pulse frequency greater than or equal to 500 Hertz; after delivering the first train of electrical stimulation pulses, cease the delivery of the electrical stimulation therapy for a predetermined period of time; during the predetermined period of time, sense an evoked compound action potential (ECAP) signal from a tissue of the patient; determine, based on a characteristic value of the ECAP signal, a value of at least one parameter at least partially defining a second train of electrical stimulation pulses, wherein the second train of electrical stimulation pulses comprises a second pulse frequency greater than or equal to 500 Hertz; and responsive to the predetermined period of time elapsing, deliver the second train of electrical stimulation pulses according to the value of the at least one parameter at least partially defining the second train of pulses. deliver electrical stimulation therapy comprising a first train of electrical stimulation pulses to a patient, wherein the first train of electrical stimulation pulses comprises a first pulse frequency greater than or equal to 500 Hertz; after delivering the first train of electrical stimulation pulses, cease the delivery of the electrical stimulation therapy for a predetermined period of time; during the predetermined period of time, sense an evoked compound action potential (ECAP) signal from a tissue of the patient; determine, based on a characteristic value of the ECAP signal, a value of at least one parameter at least partially defining a second train of electrical stimulation pulses, wherein the second train of electrical stimulation pulses comprises a second pulse frequency greater than or equal to 500 Hertz; and responsive to the predetermined period of time elapsing, deliver the second train of electrical stimulation pulses according to the value of the at least one parameter at least partially defining the second train of pulses.
A control sensor assembly for an agricultural harvester, the control sensor assembly comprising: a linkage for connection to a header height control system; a bushing that is connected to the linkage: a mount that includes a body having a through hole adapted to receive the bushing; the through hole extends from a first surface to a second surface opposite the first surface, and a first rotational stop extending from the first surface and adjacent the through hole; and a sensor, the control sensor assembly being characterized in that: the bushing includes: a first end connected to the linkage, and a second end housing a magnet, and the sensor is mounted to the second surface of the mount and spaced from the second end of the bushing. a linkage for connection to a header height control system; a bushing that is connected to the linkage: a mount that includes a body having a through hole adapted to receive the bushing; the through hole extends from a first surface to a second surface opposite the first surface, and a first rotational stop extending from the first surface and adjacent the through hole; and a sensor, the control sensor assembly being characterized in that: the bushing includes: a first end connected to the linkage, and a second end housing a magnet, and the sensor is mounted to the second surface of the mount and spaced from the second end of the bushing. a mount that includes a body having a through hole adapted to receive the bushing; the through hole extends from a first surface to a second surface opposite the first surface, and a first rotational stop extending from the first surface and adjacent the through hole; and a sensor, the control sensor assembly being characterized in that: the bushing includes: a first end connected to the linkage, and a second end housing a magnet, and the sensor is mounted to the second surface of the mount and spaced from the second end of the bushing. the bushing includes: a first end connected to the linkage, and a second end housing a magnet, and a first end connected to the linkage, and a second end housing a magnet, and the sensor is mounted to the second surface of the mount and spaced from the second end of the bushing.
A system, comprising: a radiant source characterized by an average excitation wavelength; a sample disposed to receive radiation from the radiant source, the sample comprising: a first dye; a second dye; and a detector configured to measure emissions from the sample; a first emission spectral element characterized by a first average emission wavelength; a second emission spectral element characterized by a second average emission wavelength that is different than the first average emission wavelength; at least one processor comprising at least one memory including instructions to: illuminate the sample with the radiant source and, in response, measure emissions from the sample using the detector and the first emission spectral element and measure emissions from the sample using the detector and the second emission spectral element, wherein at least one of the dyes is an off-axis dye, an "off-axis dye" being a dye having a first maximum absorption or excitation wavelength that is an absolute maximum over an entire spectrum of the dye and having a second maximum absorption or excitation wavelengths that is a local maximum and is separated from the first maximum absorption or excitation wavelength by at least 60 nanometers, wherein the radiant source is characterized by electromagnetic radiation within the visible light range, near infrared range, infrared range, or ultraviolet range. a radiant source characterized by an average excitation wavelength; a sample disposed to receive radiation from the radiant source, the sample comprising: a first dye; a second dye; and a detector configured to measure emissions from the sample; a first emission spectral element a first dye; a second dye; and a detector configured to measure emissions from the sample; a first emission spectral element characterized by a first average emission wavelength; a second emission spectral element characterized by a second average emission wavelength that is different than the first average emission wavelength; at least one processor comprising at least one memory including instructions to: illuminate the sample with the radiant source and, in response, measure emissions from the sample using the detector and the first emission spectral element and measure emissions from the sample using the detector and the second emission spectral element, wherein at least one of the dyes is an off-axis dye, an "off-axis dye" being a dye having a first maximum absorption or excitation wavelength that is an absolute maximum over an entire spectrum of the dye and having a second maximum absorption or excitation wavelengths that is a local maximum and is separated from the first maximum absorption or excitation wavelength by at least 60 nanometers, wherein the radiant source is characterized by electromagnetic radiation within the visible light range, near infrared range, infrared range, or ultraviolet range.
A valve assembly designed to regulate air flow through a musical instrument, the valve assembly comprising: a cylindrical-shaped valve casing having openings formed therein that define at least one ingress and at least one egress through which vibrating columns of air pass; and a valve piston received within the valve casing and linearly displaceable therein, the valve piston comprising three separate passageways disposed within an essentially hollow valve piston body with two of the three passageways (411,413) being closed along two paths defined therein and respectively connecting two pairs of openings formed in the valve piston to allow vibrating columns of air to pass therethrough, and a third passageway characterized in that the third passageway has a cross-section that is open and u-shaped, whereby all three of the passageways (411,413,512) formed in the valve piston are essentially bump-free. a cylindrical-shaped valve casing having openings formed therein that define at least one ingress and at least one egress through which vibrating columns of air pass; and a valve piston received within the valve casing and linearly displaceable therein, the valve piston comprising three separate passageways disposed within an essentially hollow valve piston body with two of the three passageways (411,413) being closed along two paths defined therein and respectively connecting two pairs of openings formed in the valve piston to allow vibrating columns of air to pass therethrough, and a third passageway characterized in that the third passageway has a cross-section that is open and u-shaped, whereby all three of the passageways (411,413,512) formed in the valve piston are essentially bump-free.
An apparatus for a chamfer machining of a gear machined workpiece comprising a workpiece spindle having a workpiece holder rotatably supported about an axis of rotation for holding the workpiece; a tool spindle having a tool holder rotatably supported about an axis of rotation for holding a finger mill, wherein the tool spindle is travelable via at least one linear axis of the apparatus relative to the workpiece holder; and a control having a machining function that rotates the workpiece held in the workpiece holder by controlling the workpiece spindle for the chamfer machining of a gear machined workpiece while a finger mill held in the tool holder engages at the edge to be machined, characterized in that the machining function varies the rotational speed of the workpiece during the chamfer machining such that a left tooth trace (1.FL) is machined at a different rotational speed and/or rotational acceleration than a right tooth trace (2.FL) and/or is machined with a rotational speed profile of the workpiece that is not symmetrical with the rotational speed profile used on the right tooth trace a workpiece spindle having a workpiece holder rotatably supported about an axis of rotation for holding the workpiece; a tool spindle having a tool holder rotatably supported about an axis of rotation for holding a finger mill, wherein the tool spindle is travelable via at least one linear axis of the apparatus relative to the workpiece holder; and a control having a machining function that rotates the workpiece held in the workpiece holder by controlling the workpiece spindle for the chamfer machining of a gear machined workpiece while a finger mill held in the tool holder engages at the edge to be machined, characterized in that the machining function varies the rotational speed of the workpiece during the chamfer machining such that a left tooth trace (1.FL) is machined at a different rotational speed and/or rotational acceleration than a right tooth trace (2.FL) and/or is machined with a rotational speed profile of the workpiece that is not symmetrical with the rotational speed profile used on the right tooth trace