mhurhangee/patent-ind-claim-en huggingface dataset:
A securing device for securing a front panel of a drawer to a drawer frame, having a holding element for securing to the front panel and a closing element for securing to the drawer frame, the closing element comprising a support and a closure having a holding segment supported rotatably about an axis of rotation on the support , a spring having an operative connection to the closure , and the closure being implemented for exposing a holding region of the holding element in an open rotational position of the closure , and for blocking the holding region in a closed position of the closure , wherein a transmission element is hinged to the closure by means of a rotating/sliding connection on the closure side spaced apart from the axis of rotation of the closure , wherein a rotating/sliding connection on the opener side having a bearing element is disposed on the transmission element opposite the rotating/sliding connection on the closure side, wherein the rotating/sliding connection on the opener side produces a connection to a displaceably supported opener , wherein the rotating/sliding connection on the opener side comprises a first and a second control curve on which the bearing element is guided, and wherein the two control curves intersect, characterized in that the bearing element is disposed along the second control curve at a greater radius when the closure is closed and at a lesser radius when the closure is open , relative to the center of rotation of the opener . the closing element comprising a support and a closure having a holding segment supported rotatably about an axis of rotation on the support , a spring having an operative connection to the closure , and the closure being implemented for exposing a holding region of the holding element in an open rotational position of the closure , and for blocking the holding region in a closed position of the closure , wherein a transmission element is hinged to the closure by means of a rotating/sliding connection on the closure side spaced apart from the axis of rotation of the closure , wherein a rotating/sliding connection on the opener side having a bearing element is disposed on the transmission element opposite the rotating/sliding connection on the closure side, wherein the rotating/sliding connection on the opener side produces a connection to a displaceably supported opener , wherein the rotating/sliding connection on the opener side comprises a first and a second control curve on which the bearing element is guided, and wherein the two control curves intersect, characterized in that the bearing element is disposed along the second control curve at a greater radius when the closure is closed and at a lesser radius when the closure is open , relative to the center of rotation of the opener .
An inverter disposed so as to face a structure mounted on a vehicle, the inverter comprising: a case , wherein the case includes an upper case and a lower case attached to a bottom surface side of the upper case , the upper case includes a flange portion constituting an attachment portion of the lower case , and a connector connecting portion to which a connector is connected, characterised in that , the connector connecting portion includes an outer wall portion that forms an outer wall of the connector connecting portion , at least a part of the flange portion and at least a part of the outer wall portion are disposed so as to overlap each other in a direction in which the connector connecting portion and the structure face each other the outer wall portion has an arch shape, and the connector connecting portion is formed with a rib in a direction along an outer peripheral shape of the outer wall portion . a case , wherein the case includes an upper case and a lower case attached to a bottom surface side of the upper case , the upper case includes a flange portion constituting an attachment portion of the lower case , and a connector connecting portion to which a connector is connected, characterised in that , the connector connecting portion includes an outer wall portion that forms an outer wall of the connector connecting portion , at least a part of the flange portion and at least a part of the outer wall portion are disposed so as to overlap each other in a direction in which the connector connecting portion and the structure face each other the outer wall portion has an arch shape, and the connector connecting portion is formed with a rib in a direction along an outer peripheral shape of the outer wall portion .
A tractor and baler combination, the baler comprising: a chassis configured for towing behind the tractor ; a pickup supported by the chassis and configured to deliver cut crop material into the baler; a bale chamber configured to receive the cut crop material from the pickup for forming a bale within the bale chamber ; a twine arm assembly configured to apply twine onto a bale during a bale-wrapping procedure, the twine arm assembly movable from a home position at which the twine arm assembly is arranged with respect to the bale chamber to allow forming of the bale within the bale chamber to a twine arm insert position at which the twine arm assembly is arranged with respect to the bale chamber to allow twine to release from the twine arm assembly and onto the bale during the bale-wrapping procedure; and at least one sensor arranged for detecting a position of the twine arm assembly ; characterized in that the baler further comprises: a control system receiving a signal from the at least one sensor corresponding to the detection of the twine arm assembly arriving at an insert preparatory position prior to the twine arm assembly reaching the insert position and stopping the tractor based on the detection of the arrival of the twine arm assembly at the insert preparatory position, wherein the bale-wrapping procedure begins substantially simultaneously with the stopping of the tractor . a chassis configured for towing behind the tractor ; a pickup supported by the chassis and configured to deliver cut crop material into the baler; a bale chamber configured to receive the cut crop material from the pickup for forming a bale within the bale chamber ; a twine arm assembly configured to apply twine onto a bale during a bale-wrapping procedure, the twine arm assembly movable from a home position at which the twine arm assembly is arranged with respect to the bale chamber to allow forming of the bale within the bale chamber to a twine arm insert position at which the twine arm assembly is arranged with respect to the bale chamber to allow twine to release from the twine arm assembly and onto the bale during the bale-wrapping procedure; and at least one sensor arranged for detecting a position of the twine arm assembly ; characterized in that the baler further comprises: a control system receiving a signal from the at least one sensor corresponding to the detection of the twine arm assembly arriving at an insert preparatory position prior to the twine arm assembly reaching the insert position and stopping the tractor based on the detection of the arrival of the twine arm assembly at the insert preparatory position, wherein the bale-wrapping procedure begins substantially simultaneously with the stopping of the tractor .
A memory , comprising: a memory array having a plurality of memory cells; an address decoder configured to assert a wordline to enable the memory cells; and a tracking circuit configured to vary a duration of asserting the wordline as a function of a path length to a memory cell in a row of memory cells of the plurality of memory cells that is accessed, characterised in that the tracking circuit additionally comprises a variable delay circuit configured to vary a delay of a tracking signal as a function of said memory cell of the plurality of memory cells being accessed, and wherein the tracking circuit is further configured to vary the duration of asserting the wordline as a function of the delayed tracking signal, and the variable delay circuit comprises a transmission line configured to receive the tracking signal, a plurality of dummy loads spaced apart along the transmission line, and a bypass circuit configured to output the delayed tracking signal, the bypass circuit being switchable to bypass one or more of the plurality of dummy loads as a function of said memory cell of the plurality of memory cells accessed. a memory array having a plurality of memory cells; an address decoder configured to assert a wordline to enable the memory cells; and a tracking circuit configured to vary a duration of asserting the wordline as a function of a path length to a memory cell in a row of memory cells of the plurality of memory cells that is accessed, characterised in that the tracking circuit additionally comprises a variable delay circuit configured to vary a delay of a tracking signal as a function of said memory cell of the plurality of memory cells being accessed, and wherein the tracking circuit is further configured to vary the duration of asserting the wordline as a function of the delayed tracking signal, and the variable delay circuit comprises a transmission line configured to receive the tracking signal, a plurality of dummy loads spaced apart along the transmission line, and a bypass circuit configured to output the delayed tracking signal, the bypass circuit being switchable to bypass one or more of the plurality of dummy loads as a function of said memory cell of the plurality of memory cells accessed.
A heater control device for an air-fuel ratio sensor including: an air-fuel ratio sensor attached to an exhaust pipe of an engine (E); a heater that heats a sensor element of the air-fuel ratio sensor ; and a control unit that performs heating control for the heater , wherein as start modes of the engine (E), there are two types of normal start (A) for starting the engine (E) according to start operation of a driver and restart (B) from a temporary stop by idling stop control, and the control unit starts constant temperature heating control with elapse of a predetermined time (T 1, T2, T3, T4) after the start of the engine (E) as a trigger, characterized in that the predetermined time (T1, T2, T3, T4) is set shorter in a case of the restart (B) than in a case of the normal start (A), wherein the constant temperature heating control is constant temperature heating (Z) by feedback control, and the control unit executes, in order, preheating (X) having a lower setting temperature than the constant temperature heating (Z) and rapid heating (Y) having a higher setting temperature than the constant temperature heating (Z) from the start of the engine (E) to the start of the constant temperature heating (Z). as start modes of the engine (E), there are two types of normal start (A) for starting the engine (E) according to start operation of a driver and restart (B) from a temporary stop by idling stop control, and the control unit starts constant temperature heating control with elapse of a predetermined time (T 1, T2, T3, T4) after the start of the engine (E) as a trigger, characterized in that the predetermined time (T1, T2, T3, T4) is set shorter in a case of the restart (B) than in a case of the normal start (A), wherein the constant temperature heating control is constant temperature heating (Z) by feedback control, and the control unit executes, in order, preheating (X) having a lower setting temperature than the constant temperature heating (Z) and rapid heating (Y) having a higher setting temperature than the constant temperature heating (Z) from the start of the engine (E) to the start of the constant temperature heating (Z).
A telemetry wireless beacon data preprocessing method for a vehicular telemetry system, the vehicular telemetry system comprising at least one wireless beacon communication device , at least one beacon device , at least one remote device and at least one vehicle including a vehicular telemetry hardware system and a resident vehicular portion ; wherein the at least one beacon device is configured to periodically sense and communicate with the at least one wireless communication device in the form of a message including a unique identifier with associated data depending on the type of sensors of the at least one beacon device , and the at least one wireless beacon communication device is configured to communicate with the vehicular telemetry hardware system ; the method comprising accessing, via the at least one remote device , a log of telemetry data communicated from the vehicular telemetry hardware system , said log of telemetry data being in the form of raw data and including engine data, acceleration data, location data, the unique beacon identifier and the data associated therewith including at least one of temperature data, illumination data, pressure data and user defined sensor data, translating said engine data, acceleration data and location data into at least one of engine codes, speed, G forces and map locations, for each unique beacon identifier, translating the therewith associated data into at least one of a temperature, pressure, light and user defined sensor reading, and storing said translated data as a preprocessed log of telemetry data for further fleet management condition processing.
A method comprising: performing , by a first device , functions in one or more networks , sending, to a second device , all data that is incurred in the performing and stored on the first device , and storing that data in the second device , wherein the first device is associated with one or more first addresses and the second device is associated with one or more second addresses in the one or more networks ; at regular intervals or at predetermined times, performing , by the first device , a self-test and sending a test result to the second device ; and in response to an absence of the test result or in response to a negative test result, issuing , by the second device , a command to the first device to cease performing functions and to self-configure with the one or more second addresses; and self-configuring the second device with the one or more first addresses; wherein both devices are part of a chain of multiple devices, wherein the chain is represented by a data structure that is stored on each of the devices , and wherein in case of an absence or negative test result of a device, the next device in the chain in each case takes over the performing of the functions and stores and copies data to the next device of the chain in turn. performing , by a first device , functions in one or more networks , sending, to a second device , all data that is incurred in the performing and stored on the first device , and storing that data in the second device , wherein the first device is associated with one or more first addresses and the second device is associated with one or more second addresses in the one or more networks ; at regular intervals or at predetermined times, performing , by the first device , a self-test and sending a test result to the second device ; and in response to an absence of the test result or in response to a negative test result, issuing , by the second device , a command to the first device to cease performing functions and to self-configure with the one or more second addresses; and self-configuring the second device with the one or more first addresses; wherein both devices are part of a chain of multiple devices, wherein the chain is represented by a data structure that is stored on each of the devices , and wherein in case of an absence or negative test result of a device, the next device in the chain in each case takes over the performing of the functions and stores and copies data to the next device of the chain in turn.
A laminated glazing consisting of a plurality of rigid transparent substrates that are bonded to one another pairwise via an intercalary adhesive layer, at least one of these transparent substrates being coated with an electrically conductive layer that is substantially uniform in nature and thickness, a zone of this transparent substrate having four edges opposing one another in pairs , , first and second busbars being arranged along two opposite edges , characterized in that ablation lines of the electrically conductive layer close in on themselves while forming non-conductive strips , each occupying a major portion of the distance between the busbars , the shape of the non-conductive strips being capable of providing a temperature of heating by the electrically conductive layer that is virtually constant over the entire area of the zone , in that the width of the conductive strips is at least equal to 50 μm, and at most equal to 5 mm, and in that the pitch of the pattern of the conductive strips and of the non-conductive strips is at least equal to 0.5 mm, and at most equal to 10 mm.
A packing container for accommodating number plate panels , wherein each number plate panel is provided with a pane! identification means which unambiguously identifies it, which can be detected opto-electronically and in which information about the number plate panel is encrypted, characterized in that at least two number plate panels are accommodated in the packing container , and the packing container is provided with a container identification means in which the information respectively encrypted in the panel identification means of the at least two number plate panels is recorded at least partially.
A frame of an armrest comprising: a first portion comprising a shaft and a single plastic material lining overmolded around the shaft; and a second portion comprising at least one branch attached to the lining, wherein the shaft comprises two axial ends and an external surface connecting the two axial ends, the lining covering the entire external surface or the entire external surface except the two axial ends. a first portion comprising a shaft and a single plastic material lining overmolded around the shaft; and a second portion comprising at least one branch attached to the lining, wherein the shaft comprises two axial ends and an external surface connecting the two axial ends, the lining covering the entire external surface or the entire external surface except the two axial ends.
A recording method comprising: emitting laser light from an optical fiber array to record an image with moving a recording target and the optical fiber array relatively using a recording device , where the image is formed of writing units and the recording device includes a plurality of laser light-emitting elements and an emitting unit that includes the optical fiber array , in which a plurality of optical fibers configured to guide laser light emitted from the laser light-emitting elements are aligned, characterized in that (A'D/A'C) that is a ratio of a length of a diagonal line A'D to a length of a diagonal line A'C in the image formed in a manner that at least part of the writing units are overlapped one another in a main-scanning direction is 1.05 or greater, where B is a length of 1/2 of a line width of the writing unit in the main-scanning direction, A is a center point of an edge of the writing unit in a sub-scanning direction, A' is a position proceeded inside the writing unit from A by B, a line LL' is drawn to include A' and to be orthogonal to the writing unit, the length of the diagonal line A'C is a length between a line having A' as a starting point and having an angle of 45° with the line LL' and a cross point C of the line with the writing unit, and the length of the diagonal line A'D is a length between a line having A' as a starting point and having an angle of 135° with the line LL' and a cross point D of the line with the writing unit.
Optical component (40; 40a) comprising a. a mirror array having a multiplicity of mirror elements , i. which each have at least one degree of freedom of displacement, and ii. which are each connected to at least one actuator for displacement, b. a carrying structure , which is mechanically connected to the mirror array , and c. a multiplicity of local regulating devices for damping oscillations of the mirror elements , d. wherein the totality of the mirror elements forms a parqueting of a total reflection surface of the mirror array , e. wherein the mirror array has a total surface extending perpendicular to a surface normal , characterized in that f. the carrying structure projects beyond the total surface of the mirror array in a direction perpendicular to the surface normal by at most 5 mm, and g. each of the regulating devices in each case has at least one capacitive sensor having at least one moveable electrode and at least one electrode arranged rigidly relative to the carrying structure . a. a mirror array having a multiplicity of mirror elements , i. which each have at least one degree of freedom of displacement, and ii. which are each connected to at least one actuator for displacement, i. which each have at least one degree of freedom of displacement, and ii. which are each connected to at least one actuator for displacement, b. a carrying structure , which is mechanically connected to the mirror array , and c. a multiplicity of local regulating devices for damping oscillations of the mirror elements , d. wherein the totality of the mirror elements forms a parqueting of a total reflection surface of the mirror array , e. wherein the mirror array has a total surface extending perpendicular to a surface normal , f. the carrying structure projects beyond the total surface of the mirror array in a direction perpendicular to the surface normal by at most 5 mm, and g. each of the regulating devices in each case has at least one capacitive sensor having at least one moveable electrode and at least one electrode arranged rigidly relative to the carrying structure .
An industrial truck with a driver's display and at least one manually actuatable control element , to which a plurality of function buttons is assigned, characterized in that a switching button for the function buttons is provided, upon the actuation of which at least one of the function buttons is assigned a respective second function, wherein the second function is a function that can be programmed by the driver himself, and a memory unit and a driver login unit are provided, wherein when a driver logs in to the driver login unit his driver-specific second functions are loaded from the memory unit, and when the driver logs out his driver-specific second functions are stored in the memory unit.
Method for measuring different particle concentrations using a particle measurement system, comprising a photometric scattered-light unit having a measurement volume , wherein the scattered-light unit consists of at least one light transmitter , which emits pulsed light signals, and of at least one light-sensitive receiver system , which is arranged under at least one angle and receives the scattered light of the particles that form the particle concentration, characterized in that the scattered-light unit having the measurement volume is hermetically sealed with the exception of at least one fluid inlet and/or at least one fluid outlet , which are provided with shut-off devices , wherein the scattered-light unit having the measurement volume receives a sample of the fluid to be investigated and the first and/or second shut-off apparatus is/are closed and a flow of the fluid to be investigated is generated in the completely hermetically sealed scattered-light unit and a predeterminable first number of measurement values is recorded.