mhurhangee/ep-ind-claims huggingface dataset:
An image forming apparatus comprising: a plugin application (301, 303, 3), a client (331, 704) configured to transmit, in accordance with a request from the plugin application being a first program executed in a first execution environment corresponding to a first programming language having a function of automatically performing management of a memory area used in the first program, a processing request for requesting execution of information processing using a second program (316, 703) executed in a second execution environment corresponding to a second programming language having no function of automatically performing management of a memory area used in the second program, the client being operated in the first execution environment; and a server (315, 705) configured to receive the processing request transmitted from the client and execute the information processing by executing the second program in accordance with the received processing request, the server being operated in the second execution environment, characterized in that the server operates on a process that uses a logical memory space independent of a logical memory space used in the first execution environment, the processing request transmitted from the client includes data serving as a target of the information processing and a parameter concerning the information processing, and includes designation of a library and a function of the second program, and if the execution of the information processing using the second program is complete, the server transmits the execution result to the client. a plugin application (301, 303, 3), a client (331, 704) configured to transmit, in accordance with a request from the plugin application being a first program executed in a first execution environment corresponding to a first programming language having a function of automatically performing management of a memory area used in the first program, a processing request for requesting execution of information processing using a second program (316, 703) executed in a second execution environment corresponding to a second programming language having no function of automatically performing management of a memory area used in the second program, the client being operated in the first execution environment; and a server (315, 705) configured to receive the processing request transmitted from the client and execute the information processing by executing the second program in accordance with the received processing request, the server being operated in the second execution environment, characterized in that the server operates on a process that uses a logical memory space independent of a logical memory space used in the first execution environment, the processing request transmitted from the client includes data serving as a target of the information processing and a parameter concerning the information processing, and includes designation of a library and a function of the second program, and if the execution of the information processing using the second program is complete, the server transmits the execution result to the client.
A haulage vehicle including a radiator mounted on a front side of a chassis with a radiator guard installed at said front of said radiator so as to protect said radiator, comprising: a support frame (24, 24A) that divides an opening area, through which air is taken into said radiator for an engine installed in said chassis of said haulage vehicle, into smaller partitioned areas; and characterized in that it comprises further a plurality of sound absorbing ducts (17a, 17b), each mounted at one of said partitioned areas of said opening area, which are defined by said support frame (24, 24A), by fixing mounting pieces (44, 45) disposed in peripheral areas to a frame present around said opening area and to said support frame (24, 24A) via bolts (44a, 45a), and each having a plurality of air passages with a sound absorbing material bonded to inner walls of said air passages and wherein, a lower end of said support frame (24, 24A) is fixed to a mainframe of said chassis, whereas an upper end of said support frame (24, 24A) is fixed to a foot access deck so as to divide said opening area into a left-side partitioned area and a right-side partitioned area. a support frame (24, 24A) that divides an opening area, through which air is taken into said radiator for an engine installed in said chassis of said haulage vehicle, into smaller partitioned areas; and characterized in that it comprises further a plurality of sound absorbing ducts (17a, 17b), each mounted at one of said partitioned areas of said opening area, which are defined by said support frame (24, 24A), by fixing mounting pieces (44, 45) disposed in peripheral areas to a frame present around said opening area and to said support frame (24, 24A) via bolts (44a, 45a), and each having a plurality of air passages with a sound absorbing material bonded to inner walls of said air passages and wherein, a lower end of said support frame (24, 24A) is fixed to a mainframe of said chassis, whereas an upper end of said support frame (24, 24A) is fixed to a foot access deck so as to divide said opening area into a left-side partitioned area and a right-side partitioned area.
Use of a combination of a pozzolan source and a metal salt additive for reducing linear shrinkage during heat exposure at a temperature of up to 1000°C of a calcium sulphate-based product comprising gypsum, wherein the metal salt additive comprises a metal salt which decomposes between 300-500°C to yield a metal oxide.
A universal conduit assembly for a welding torch comprising: a conduit liner defining a proximal end portion and a distal end portion, the conduit liner including a polymer material disposed about a metal coiled conduit; a conduit tip secured to the proximal end portion of the conduit liner, the conduit tip defining an internal shoulder that is open at a first end; and an interchangeable conduit stop removably secured to the conduit tip, wherein the interchangeable conduit stop is adapted for connection to a specific power connector, and characterized in that in use the interchangeable conduit stop extends beyond the first end of the internal shoulder of the conduit tip to partially cover the polymer material. a conduit liner defining a proximal end portion and a distal end portion, the conduit liner including a polymer material disposed about a metal coiled conduit; a conduit tip secured to the proximal end portion of the conduit liner, the conduit tip defining an internal shoulder that is open at a first end; and an interchangeable conduit stop removably secured to the conduit tip, wherein the interchangeable conduit stop is adapted for connection to a specific power connector, and characterized in that in use the interchangeable conduit stop extends beyond the first end of the internal shoulder of the conduit tip to partially cover the polymer material.
A signal processing device comprising a display control unit configured to set an image area to be presented to a driver of a vehicle from an image obtained by imaging a peripheral area around the vehicle in accordance with driving information related to a driving situation of the vehicle, and to control a visual recognition range in the peripheral area in accordance with the driving situation and a determined moving direction and a determined moving distance of a head position of the driver, the driver being able to visually recognize the visual recognition range from the presented image, wherein controlling the visual recognition range in the peripheral area comprises switching from a mode in which an image area is obtained by a single imaging unit to a mode in which the image area has a wider visual recognition range and is obtained by imaging a peripheral area around the vehicle by a plurality of imaging units (11a, 11b) each having within an imaging range a peripheral area on a same side of the vehicle.
Brake force booster device for a brake system of a vehicle, having a driver braking force transmission component; an actuator force transmission component; and a differential travel sensor, having - a field-generating component (30, 66) which is arranged at or adjacent to the driver braking force transmission component or the actuator force transmission component and by means of which a first electrical and/or magnetic field with a predefined intensity distribution is generated in a three-dimensional axis system which can be defined fixedly with respect to a first body, wherein the first body is the driver braking force transmission component or the actuator force transmission component; - a sensor device which is arrangeable on the vehicle such that the driver braking force transmission component and the actuator force transmission component are adjustable in relation to the sensor device and by means of which at least one intensity value (I, I1, I2, Imax, Ired) of a second electrical and/or magnetic field (32, 42), which is generated owing to an interaction of the first electrical and/or magnetic field with a second body, can be determined, wherein the second body is not the same as the first body and is the driver braking force transmission component or the actuator force transmission component; and - an evaluation device by means of which, taking into consideration the at least one intensity value (I, I1, I2, Imax, Ired), an item of output information regarding a differential travel (s, s1) that exists between the driver braking force transmission component and the actuator force transmission component can be defined. - a field-generating component (30, 66) which is arranged at or adjacent to the driver braking force transmission component or the actuator force transmission component and by means of which a first electrical and/or magnetic field with a predefined intensity distribution is generated in a three-dimensional axis system which can be defined fixedly with respect to a first body, wherein the first body is the driver braking force transmission component or the actuator force transmission component; - a sensor device which is arrangeable on the vehicle such that the driver braking force transmission component and the actuator force transmission component are adjustable in relation to the sensor device and by means of which at least one intensity value (I, I1, I2, Imax, Ired) of a second electrical and/or magnetic field (32, 42), which is generated owing to an interaction of the first electrical and/or magnetic field with a second body, can be determined, wherein the second body is not the same as the first body and is the driver braking force transmission component or the actuator force transmission component; and - an evaluation device by means of which, taking into consideration the at least one intensity value (I, I1, I2, Imax, Ired), an item of output information regarding a differential travel (s, s1) that exists between the driver braking force transmission component and the actuator force transmission component can be defined.
A hand-held device (1; 1') for the stimulation and irradiation of pathogenic microorganisms in mouth and throat, comprising at least one excitation light source (31; 31') in the short-wave visible spectral range for self-fluorescence excitation and irradiation of the pathogenic microorganisms at the surface, wherein the excitation light source (31; 31') emits an excitation radiation which corresponds to an absorption maximum of porphyrins, at least one primary irradiation light source (32; 32') in the red spectral range for primary irradiation of the pathogenic microorganisms and for transillumination, and optionally at least one secondary irradiation light source (33; 33') in the visible spectral range from 450 nm to 600 nm, wherein the emitted radiation of the irradiation light sources (32, 33; 32', 33') has respective spectral components which are absorbable by endogenous porphyrins produced by the pathogenic microorganisms, whereby generation of fluorescence and inactivation of the pathogenic microorganisms occur by means of subsequent processes, and the hand-held device (1; 1') further comprises a pressure sensor which, upon detecting a contact pressure of the hand-held device (1; 1') on the affected surface area, increases an irradiation light intensity to values in a range of 10 mW/cm 2 to 100 mW/cm 2 in order to effect inactivation of the pathogenic microorganisms. at least one excitation light source (31; 31') in the short-wave visible spectral range for self-fluorescence excitation and irradiation of the pathogenic microorganisms at the surface, wherein the excitation light source (31; 31') emits an excitation radiation which corresponds to an absorption maximum of porphyrins, at least one primary irradiation light source (32; 32') in the red spectral range for primary irradiation of the pathogenic microorganisms and for transillumination, and optionally at least one secondary irradiation light source (33; 33') in the visible spectral range from 450 nm to 600 nm, wherein the emitted radiation of the irradiation light sources (32, 33; 32', 33') has respective spectral components which are absorbable by endogenous porphyrins produced by the pathogenic microorganisms, whereby generation of fluorescence and inactivation of the pathogenic microorganisms occur by means of subsequent processes, and the hand-held device (1; 1') further comprises a pressure sensor which, upon detecting a contact pressure of the hand-held device (1; 1') on the affected surface area, increases an irradiation light intensity to values in a range of 10 mW/cm 2 to 100 mW/cm 2 in order to effect inactivation of the pathogenic microorganisms.
A 360 degree recording microphone apparatus, comprising: a shell having the geometric configuration of a convex cylinder having a horizontal circumferential centerline, said cylinder having an open proximal end and an open distal end, and said shell defining an interior volume; a vertical slot extending between said proximal end and said distal end of said shell configured for receiving a pole stand; at least eight microphones (32, 34, 36, 38, 40, 42, 44, 46), arranged on the outside surface of said shell; at least one inner support member (58, 60) housed in said interior volume, said support member (58, 60) defining an exterior accessible horizontal slot; a removeable, size adjustable clamp configured for being attached to the pole stand, and matingly proportioned for sliding engagement within said horizontal slot; and at least one microphone output connector operatively connected to said microphones (32, 34, 36, 38, 40, 42, 44, 46) and located on at least one of said at least one inner support member (58, 60). a shell having the geometric configuration of a convex cylinder having a horizontal circumferential centerline, said cylinder having an open proximal end and an open distal end, and said shell defining an interior volume; a vertical slot extending between said proximal end and said distal end of said shell configured for receiving a pole stand; at least eight microphones (32, 34, 36, 38, 40, 42, 44, 46), arranged on the outside surface of said shell; at least one inner support member (58, 60) housed in said interior volume, said support member (58, 60) defining an exterior accessible horizontal slot; a removeable, size adjustable clamp configured for being attached to the pole stand, and matingly proportioned for sliding engagement within said horizontal slot; and at least one microphone output connector operatively connected to said microphones (32, 34, 36, 38, 40, 42, 44, 46) and located on at least one of said at least one inner support member (58, 60).
A method of adaptively compressing a digital signal for a transport over a transport link between a remote radio head and a base band unit, the method being implemented by a compressor and the method comprising: reducing redundancies in the digital signal; scaling a block of samples output from the reducing step by a scaling factor, wherein a block size of the block of samples is adaptive; quantizing the scaled samples with an adaptive quantization resolution to produce compressed samples; dequantizing the compressed samples; descaling the dequantized samples to produce a reconstructed block of samples to an original block of samples; determining the mean squared error between the reconstructed and the original block of samples and comparing the mean squared error to at least one threshold; adapting compression parameters including the block size and/or the quantization resolution based on the comparison; and transmitting information indicative of the adapted compression parameters over the transport link between the remote radio head and the base band unit. reducing redundancies in the digital signal; scaling a block of samples output from the reducing step by a scaling factor, wherein a block size of the block of samples is adaptive; quantizing the scaled samples with an adaptive quantization resolution to produce compressed samples; dequantizing the compressed samples; descaling the dequantized samples to produce a reconstructed block of samples to an original block of samples; determining the mean squared error between the reconstructed and the original block of samples and comparing the mean squared error to at least one threshold; adapting compression parameters including the block size and/or the quantization resolution based on the comparison; and transmitting information indicative of the adapted compression parameters over the transport link between the remote radio head and the base band unit.
A system for detecting a person relative to a passenger conveyor having a structural component and a passenger riding area, the system comprising: a driving circuit for supplying an oscillating drive signal, comprising an oscillator for creating an oscillating drive signal; an amplifier connected to the oscillator to amplify the oscillating drive signal; an impedance matching network connected between the amplifier and a capacitive sensor; and a mode selector operable to drive the capacitive sensor in a selected mode; the system further comprising: said capacitive sensor having a first electrode configured to produce an electric field toward a second electrode in response to the oscillating drive signal; a detection circuit connected to the capacitive sensor that senses a change in capacitance of the capacitive sensor and produces an output as a function of capacitance; and a controller responsive to the detection circuit output to selectively adjust an operation mode of the passenger conveyor. a driving circuit for supplying an oscillating drive signal, comprising an oscillator for creating an oscillating drive signal; an amplifier connected to the oscillator to amplify the oscillating drive signal; an impedance matching network connected between the amplifier and a capacitive sensor; and a mode selector operable to drive the capacitive sensor in a selected mode; the system further comprising: said capacitive sensor having a first electrode configured to produce an electric field toward a second electrode in response to the oscillating drive signal; an oscillator for creating an oscillating drive signal; an amplifier connected to the oscillator to amplify the oscillating drive signal; an impedance matching network connected between the amplifier and a capacitive sensor; and a mode selector operable to drive the capacitive sensor in a selected mode; the system further comprising: said capacitive sensor having a first electrode configured to produce an electric field toward a second electrode in response to the oscillating drive signal; a detection circuit connected to the capacitive sensor that senses a change in capacitance of the capacitive sensor and produces an output as a function of capacitance; and a controller responsive to the detection circuit output to selectively adjust an operation mode of the passenger conveyor.
A circuit assembly for protecting a unit to be operated from a supply network against overvoltage, comprising an input having a first and a second input connection, which are connected to the supply network, and an output having a first and a second output connection, to which the unit to be protected can be connected, and a protection circuit which is provided between the first and the second input connections in order to limit the voltage applied to it, and the protection circuit has a series connection of a bidirectional diode or a thyristor diode and a Zener element, characterized in that the protection circuit has a power semiconductor, wherein the series connection of the bidirectional diode or the thyristor diode and the Zener element is connected between the collector and the gate of the power semiconductor, wherein the voltage of the series connection results in a clamping voltage for the power semiconductor, which lies above the voltage of the supply network and defines the protection level, the power semiconductor is an IGBT, to which a thyristor is connected in parallel, wherein the anode of the thyristor is connected to the collector and the cathode of the thyristor is connected to the emitter of the IGBT, wherein the gate of the thyristor is in connection with the gate of the IGBT.
Method for measuring measurement voltages (UMO, UM1, UM2, UM3) in a battery system, comprising a battery module having a plurality of battery cells (B0, B1, B2, B3) connected in series and a measurement circuit for measuring measurement voltages (UMO, UM1, UM2, UM3) produced by the battery cells (B0, B1, B2, B3), wherein each battery cell (B0, B1, B2, B3) is connected in each case to two measurement inputs (P0, P1, P2, P3, P4) of the measurement circuit by means of at least two coupling resistors (RKO, RK1, RK2, RK3, RK4), and wherein the measurement voltages (UMO, UM1, UM2, UM3) are present across measurement sections (M0, M1, M2, M3) which are connected in each case to two measurement inputs (P0, P1, P2, P3, P4), wherein the measurement sections (M0, M1, M2, M3) each comprise a measurement resistor (RMO, RM1, RM2, RM3) which is able to be switched on by means of a switch (S0, S1, S2, S3), wherein the method is characterized by the following steps: a) measuring a first measurement voltage across a first measurement section and a second measurement voltage across a second measurement section with switches (S0, S1, S2, S3) open, wherein the first measurement section and the second measurement section are connected to a common measurement input; b) closing a first switch of the first measurement section; c) opening the first switch of the first measurement section; d) closing a second switch of the second measurement section; e) opening the second switch of the second measurement section; f) comparing the first measurement voltage across the first measurement section with the second measurement voltage across the second measurement section, wherein an interruption in a supply line (L0, L1, L2, L3, L4) between the battery module and the measurement circuit is detected if the first measurement voltage across the first measurement section deviates from the second measurement voltage across the second measurement section by a predefined threshold value. a) measuring a first measurement voltage across a first measurement section and a second measurement voltage across a second measurement section with switches (S0, S1, S2, S3) open, wherein the first measurement section and the second measurement section are connected to a common measurement input; b) closing a first switch of the first measurement section; c) opening the first switch of the first measurement section; d) closing a second switch of the second measurement section; e) opening the second switch of the second measurement section; f) comparing the first measurement voltage across the first measurement section with the second measurement voltage across the second measurement section, wherein an interruption in a supply line (L0, L1, L2, L3, L4) between the battery module and the measurement circuit is detected if the first measurement voltage across the first measurement section deviates from the second measurement voltage across the second measurement section by a predefined threshold value.