mhurhangee/ep-ind-claims huggingface dataset:
Device (1, 2) for guiding the movement of a drawer element that is moveably arranged on a side wall section by means of the device (1, 2), wherein the device (1, 2) comprises a support rail that can be associated with the side wall section and a pull-out rail that cooperates with the drawer element, which can be displaced relative to the support rail, and wherein the support rail can be disconnectably fitted to a rod arrangement on the side wall section via holding means matched to the rod arrangement, wherein the holding means are designed in such a way that the holding means can be fixed in abutment against a horizontally aligned rod section of the rod arrangement, wherein the holding means additionally circumferentially lie against a vertically aligned rod section of the rod arrangement across a part circumference of the vertically aligned rod section, so that the device (1, 2) can be fixed for guiding the movement on the rod arrangement, wherein the holding means have a holding element with an abutment section, which can be abutted against the horizontally aligned rod section of the rod arrangement, and an adjustable clamping part is envisaged on the holding element, which is provided in a clamping position on a side opposite the abutment section for clamping to the horizontal rod section, wherein a distance between the abutment section and the clamping part is matched to an outer dimension of the horizontally aligned rod section of the rod arrangement in the clamping position of the clamping part, and the clamping part is formed on an operating section provided elastically flexible on the holding element, characterised in that the holding element has a U-shaped vertical section for encompassing the vertically aligned rod section of the rod arrangement, wherein the abutment section of the holding element is formed on a leg of the U-shaped vertical section.
A shank assembly for an agricultural tillage implement comprising a frame, comprising: a support arm comprising a first end and a second end, the first end being configured for pivotally connecting to the frame; a shank comprising a first end and a second end, the first end of the shank being connected to the second end of the support arm; a point connected to the second end of the shank and configured for engaging with soil; and a float monitoring system, characterized in that: the float monitoring system comprises: a first sensor configured for being connected to the frame and sensing a home position; a second sensor connected to the support arm and configured for sensing an angular position of the support arm relative to the frame; and an electronic control unit operably connected to the first sensor and the second sensor and configured for comparing the home position and the angular position of the support arm and determining a float of the shank as the shank is towed in a forward direction of travel. a support arm comprising a first end and a second end, the first end being configured for pivotally connecting to the frame; a shank comprising a first end and a second end, the first end of the shank being connected to the second end of the support arm; a point connected to the second end of the shank and configured for engaging with soil; and a float monitoring system, characterized in that: the float monitoring system comprises: a first sensor configured for being connected to the frame and sensing a home position; a second sensor connected to the support arm and configured for sensing an angular position of the support arm relative to the frame; and an electronic control unit operably connected to the first sensor and the second sensor and configured for comparing the home position and the angular position of the support arm and determining a float of the shank as the shank is towed in a forward direction of travel. a first sensor configured for being connected to the frame and sensing a home position; a second sensor connected to the support arm and configured for sensing an angular position of the support arm relative to the frame; and an electronic control unit operably connected to the first sensor and the second sensor and configured for comparing the home position and the angular position of the support arm and determining a float of the shank as the shank is towed in a forward direction of travel.
A motor control system for controlling the movement of a video camera of a video surveillance system, the video camera being driven by a tilt or pan motor of the video surveillance system, said control system comprising: a first encoder (62 c) outputting a plurality of signals having corresponding signal edges, the plurality of signals including a first edge and a second edge and being based on speed of a first motor (62 b); and a first controller in electrical communication with the first encoder (62 c), wherein the plurality of signals including a first channel signal and a second channel signal, the first edge being part of the first channel signal and the second edge being part of the second channel signal, the second edge being a next soonest edge occurring after the first edge, characterized in that the first controller determining a speed of the first motor (62 b) at least in part by determining a first period measurement between detection of the first edge and detection of the second edge, wherein said system comprises speed converting means for converting the measured time between said first and second edges to a speed measurement and a speed error calculator means connected to said speed converting means for comparing the measured speed to a speed input command signal and providing a speed error signal to said controller. a first encoder (62 c) outputting a plurality of signals having corresponding signal edges, the plurality of signals including a first edge and a second edge and being based on speed of a first motor (62 b); and a first controller in electrical communication with the first encoder (62 c), wherein the plurality of signals including a first channel signal and a second channel signal, the first edge being part of the first channel signal and the second edge being part of the second channel signal, the second edge being a next soonest edge occurring after the first edge, the first controller determining a speed of the first motor (62 b) at least in part by determining a first period measurement between detection of the first edge and detection of the second edge, wherein said system comprises speed converting means for converting the measured time between said first and second edges to a speed measurement and a speed error calculator means connected to said speed converting means for comparing the measured speed to a speed input command signal and providing a speed error signal to said controller.
An image inspection device comprising: a reader configured to read an image formed on a recording material by an image forming device and to create a read image; a read image analyzer configured to detect an abnormality in the read image and to create an associated analysis result; and a file creator configured to create, for each job, that delivers one or more images, and according to the analysis results, an abnormal image file containing the read images in which an abnormality has been detected and a normal image file containing the read images in which an abnormality has not been detected, or to create either the normal image file or the abnormal image file according to a user setting; characterized in that the file creator is configured to create the abnormal image file of a current job in preference to the normal image file of the current job, in that the normal image file is created after completion of creation of the abnormal image file, and, if the image forming device starts a next job after completion of the current job, to temporarily stop creation of a normal image file for the current job and to create an abnormal image file for the next job in preference to the normal image file for the current job. a reader configured to read an image formed on a recording material by an image forming device and to create a read image; a read image analyzer configured to detect an abnormality in the read image and to create an associated analysis result; and a file creator configured to create, for each job, that delivers one or more images, and according to the analysis results, an abnormal image file containing the read images in which an abnormality has been detected and a normal image file containing the read images in which an abnormality has not been detected, or to create either the normal image file or the abnormal image file according to a user setting; characterized in that the file creator is configured to create the abnormal image file of a current job in preference to the normal image file of the current job, in that the normal image file is created after completion of creation of the abnormal image file, and, if the image forming device starts a next job after completion of the current job, to temporarily stop creation of a normal image file for the current job and to create an abnormal image file for the next job in preference to the normal image file for the current job.
Electronic device including a battery, an electrical energy generator and, between the generator and the battery, an inductive voltage boost converter, said generator being capable of supplying a first voltage (V in) lower than a second voltage (V BAT) supplied by the battery, said converter including: - an inductor whose input terminal is connected to the generator, - at least a first diode arranged between the inductor output terminal and the battery power supply terminal, - a first switch arranged between the inductor output terminal and an earth terminal, and - a control unit arranged to control the first switch; characterized in that said electronic device further includes a circuit for measuring said first voltage, which is formed by: - a measuring capacitor arranged in parallel with the battery between the earth terminal and the inductor output terminal, said measuring capacitor being smaller than the battery capacitor and having a measuring terminal connected to the voltage measuring circuit; - a second diode located between the inductor output terminal and the measuring terminal of the measuring capacitor; and - a second switch arranged between said measuring terminal and an earth terminal and controlled by the control unit; the control unit being arranged to periodically activate a mode for measuring a voltage (V M) at said measuring terminal wherein said control unit closes the second switch for a first time interval, so as to empty the measuring capacitor, and closes the first switch for a second time interval so as to establish a measuring current in the inductor, the end of the first time interval occurring before or simultaneously with the end of the second time interval so that the energy accumulated in the inductor is partially transferred into the measuring capacitor after the second time interval and thus generates, at said measuring terminal, at the end of the energy transfer, a voltage representative of said first voltage as long as said voltage is less than the battery voltage, the measuring capacitor being selected so that the measuring voltage is higher than the first voltage and lower than the battery voltage at a minimum voltage of said generator allowing charging of the battery. - an inductor whose input terminal is connected to the generator, - at least a first diode arranged between the inductor output terminal and the battery power supply terminal, - a first switch arranged between the inductor output terminal and an earth terminal, and - a control unit arranged to control the first switch; - a measuring capacitor arranged in parallel with the battery between the earth terminal and the inductor output terminal, said measuring capacitor being smaller than the battery capacitor and having a measuring terminal connected to the voltage measuring circuit; - a second diode located between the inductor output terminal and the measuring terminal of the measuring capacitor; and - a second switch arranged between said measuring terminal and an earth terminal and controlled by the control unit;
A protective film for an electronic device, comprising: a protective base film; an adhesive layer (AL1-1) under the protective base film; characterized in that the protective base film has a first Young's modulus between 10 MPa to 1,000 MPa at a first temperature and a second Young's modulus between 15 MPa to 5 GPa at a second temperature being 80 °C higher than the first temperature. a protective base film; an adhesive layer (AL1-1) under the protective base film; characterized in that the protective base film has a first Young's modulus between 10 MPa to 1,000 MPa at a first temperature and a second Young's modulus between 15 MPa to 5 GPa at a second temperature being 80 °C higher than the first temperature.
A handle assembly for operating a surgical instrument, the handle assembly comprising: a housing; an actuation shaft translatably and rotatably supported in the housing; a first trigger supported on the housing and connected to the actuation shaft, the first trigger being configured to translate the actuation shaft to operate a first function of the surgical instrument; a second trigger supported on the housing and connected to the actuation shaft, the second trigger being configured to rotate the actuation shaft to operate a second function of the surgical instrument; and a second-trigger release supported in the housing, the second-trigger release having a first position blocking actuation of the second trigger and a second position permitting actuation of the second trigger, where the second-trigger release is actuated from the first position to the second position upon complete actuation of the first trigger. a housing; an actuation shaft translatably and rotatably supported in the housing; a first trigger supported on the housing and connected to the actuation shaft, the first trigger being configured to translate the actuation shaft to operate a first function of the surgical instrument; a second trigger supported on the housing and connected to the actuation shaft, the second trigger being configured to rotate the actuation shaft to operate a second function of the surgical instrument; and a second-trigger release supported in the housing, the second-trigger release having a first position blocking actuation of the second trigger and a second position permitting actuation of the second trigger, where the second-trigger release is actuated from the first position to the second position upon complete actuation of the first trigger.
A method comprising: by a computing device, determining a power consumption profile for a device based at least in part on a type of each of a plurality of radios of the device, wherein the power consumption profile comprises information regarding a typical rate of power consumption by the device; by the computing device, receiving status information for the device, wherein the status information is associated with a type of a particular one of the plurality of radios being utilized, wherein the status information comprises power status and network connectivity status; by the computing device, determining, using a resource-control algorithm and based on the status information and the power consumption profile, a schedule for sending push events to the device, wherein determining the schedule comprises adjusting a frequency of sending push events to the device; by the computing device, identifying content to be provisioned to the device; by the computing device, generating a down-scaled version of the identified content based on the status information and the power consumption profile; by the computing device, sending the scheduled push events at the adjusted frequency to the device, wherein the push events provision the down-scaled version of the identified content to the device; and by the computing device, subsequently sending to the device an up-scaled version of the identified content based on a determination that the device is connected to a cheaper or higher-bandwidth network. by a computing device, determining a power consumption profile for a device based at least in part on a type of each of a plurality of radios of the device, wherein the power consumption profile comprises information regarding a typical rate of power consumption by the device; by the computing device, receiving status information for the device, wherein the status information is associated with a type of a particular one of the plurality of radios being utilized, wherein the status information comprises power status and network connectivity status; by the computing device, determining, using a resource-control algorithm and based on the status information and the power consumption profile, a schedule for sending push events to the device, wherein determining the schedule comprises adjusting a frequency of sending push events to the device; by the computing device, identifying content to be provisioned to the device; by the computing device, generating a down-scaled version of the identified content based on the status information and the power consumption profile; by the computing device, sending the scheduled push events at the adjusted frequency to the device, wherein the push events provision the down-scaled version of the identified content to the device; and by the computing device, subsequently sending to the device an up-scaled version of the identified content based on a determination that the device is connected to a cheaper or higher-bandwidth network.
An antenna mast assembly for use with an automobile, the antenna mast assembly comprising: a coil radiator including a first coil portion and a second coil portion, the first coil portion being spaced apart from the second coil portion, and the coil radiator including a linear portion extending between and connecting the first and second coil portions; a support for the coil radiator, the support having a first end portion, a second end portion, a first protruding portion, and a second protruding portion, the first and second protruding portions are spaced apart from each other; wherein the coil radiator is disposed about at least a portion of the support such that the first coil portion is between the first protruding portion and the first end portion of the support, and such that the second coil portion is between the second protruding portion and the second end portion of the support; whereby contact of the first coil portion with the first protruding portion inhibits sliding movement of the first coil portion along the support in a direction towards the second end portion of the support; and whereby contact of the second coil portion with the second protruding portion inhibits sliding movement of the second coil portion along the support in a direction towards the first end portion of the support. a coil radiator including a first coil portion and a second coil portion, the first coil portion being spaced apart from the second coil portion, and the coil radiator including a linear portion extending between and connecting the first and second coil portions; a support for the coil radiator, the support having a first end portion, a second end portion, a first protruding portion, and a second protruding portion, the first and second protruding portions are spaced apart from each other; wherein the coil radiator is disposed about at least a portion of the support such that the first coil portion is between the first protruding portion and the first end portion of the support, and such that the second coil portion is between the second protruding portion and the second end portion of the support; whereby contact of the first coil portion with the first protruding portion inhibits sliding movement of the first coil portion along the support in a direction towards the second end portion of the support; and whereby contact of the second coil portion with the second protruding portion inhibits sliding movement of the second coil portion along the support in a direction towards the first end portion of the support.
Process for preparing an inorganic material in the form of an alveolar monolith composed of a silica matrix having interconnected macropores with a mean dimension d A from 1 μm to 400 μm and micropores with a mean dimension d I from 0.7 to 2 nm, said process being characterised in that it comprises at least one step of mineralisation of an oil-in-water emulsion formed from droplets of an oily phase dispersed in a continuous aqueous phase and in which colloidal solid particles are present at the interface formed between the continuous aqueous phase and the dispersed droplets of oily phase, wherein: - the volume fraction of the oily phase ranges from 64 to 82 %, - said mineralisation step is performed without stirring and at a pH ≤ 3, in the presence of at least one silicon oxide precursor in an amount ≥ 3% by mass relative to the mass of the aqueous phase, and - the amount of colloidal solid particles within the emulsion ranges from 0,05 mg of particles/mL of oily phase to 16 g of particles/mL of oily phase. - the volume fraction of the oily phase ranges from 64 to 82 %, - said mineralisation step is performed without stirring and at a pH ≤ 3, in the presence of at least one silicon oxide precursor in an amount ≥ 3% by mass relative to the mass of the aqueous phase, and - the amount of colloidal solid particles within the emulsion ranges from 0,05 mg of particles/mL of oily phase to 16 g of particles/mL of oily phase.
A flow sensor comprising: a substrate; a sensing element attached to the substrate, the sensing element configured to sense at least one property of a fluid; an alignment layer deposited on the substrate, the alignment layer defining one or more guide elements; a flow channel, wherein the guide elements align the flow channel over the sensing element such that the fluid flow path is aligned over the sensing element; and a molded element that is aligned over the sensing element by the guide elements (2030; and a cap positioned over the molded element; and wherein the molded element forms a bottom and sides of the flow channel and the cap forms a top of the flow channel. a substrate; a sensing element attached to the substrate, the sensing element configured to sense at least one property of a fluid; an alignment layer deposited on the substrate, the alignment layer defining one or more guide elements; a flow channel, wherein the guide elements align the flow channel over the sensing element such that the fluid flow path is aligned over the sensing element; and a molded element that is aligned over the sensing element by the guide elements (2030; and a cap positioned over the molded element; and wherein the molded element forms a bottom and sides of the flow channel and the cap forms a top of the flow channel.
Method for producing a thermoelectric component having at least the following steps: a) providing at least one fiber, b) coating the at least one fiber with a thermoelectric material such that at least one coated fiber is formed, c) at least winding the at least one coated fiber to form a ring with a central axis, characterized by d) compressing the ring to produce a thermoelectric component, wherein the thermoelectric component produced in step d) has a first extent along an axial direction and, in a step d1), is divided, by means of a separation process, into multiple thermoelectric components each with a smaller, second extent in the axial direction. a) providing at least one fiber, b) coating the at least one fiber with a thermoelectric material such that at least one coated fiber is formed, c) at least winding the at least one coated fiber to form a ring with a central axis, characterized by d) compressing the ring to produce a thermoelectric component, wherein the thermoelectric component produced in step d) has a first extent along an axial direction and, in a step d1), is divided, by means of a separation process, into multiple thermoelectric components each with a smaller, second extent in the axial direction.