mhurhangee/patent-ind-claim-en huggingface dataset:
Mixing method in a manufacturing apparatus comprising a mixing machine comprising a support defining a reception housing , the reception housing comprising a first reception location configured to receive a first deformable capsule and a second reception location configured to receive a second deformable capsule , the first and second capsules being intended to be fluidically connected together and respectively containing a first formulation and a second formulation, the mixing machine comprising an actuating system formed of a first actuating member configured to transmit pressure onto the first capsule , and a second actuating member , configured to transmit pressure onto the second capsule , the actuating members each alternately exerting their force along a respective actuating stroke (C37, C38), the manufacturing apparatus comprising a heating element configured to heat at least one of the first and second capsules when the first and second capsules are received in the mixing machine , the mixing method comprising a preparation phase, said preparation phase comprising the following successive steps: - primary step (Em1) of moving the second actuating member , - secondary step (Em2) of moving the first actuating member , in a stroke strictly less than its actuating stroke (C37), and - heating step (Em3) using the heating element . the mixing machine comprising an actuating system formed of a first actuating member configured to transmit pressure onto the first capsule , and a second actuating member , configured to transmit pressure onto the second capsule , the actuating members each alternately exerting their force along a respective actuating stroke (C37, C38), the manufacturing apparatus comprising a heating element configured to heat at least one of the first and second capsules when the first and second capsules are received in the mixing machine , the mixing method comprising a preparation phase, said preparation phase comprising the following successive steps: - primary step (Em1) of moving the second actuating member , - secondary step (Em2) of moving the first actuating member , in a stroke strictly less than its actuating stroke (C37), and - heating step (Em3) using the heating element . - primary step (Em1) of moving the second actuating member , - secondary step (Em2) of moving the first actuating member , in a stroke strictly less than its actuating stroke (C37), and - heating step (Em3) using the heating element .
A signal processing method, comprising: obtaining (S101), by an optical transmitter, a first digital signal, wherein the first digital signal is a one-dimensional bipolar digital signal; performing (S102), by the optical transmitter, spectral compression and filtering on the first digital signal to generate a second digital signal; and performing (S103), by the optical transmitter, frequency shift on the second digital signal, wherein a center location of a spectrum of the frequency-shifted second digital signal is at a frequency of 0. obtaining (S101), by an optical transmitter, a first digital signal, wherein the first digital signal is a one-dimensional bipolar digital signal; performing (S102), by the optical transmitter, spectral compression and filtering on the first digital signal to generate a second digital signal; and performing (S103), by the optical transmitter, frequency shift on the second digital signal, wherein a center location of a spectrum of the frequency-shifted second digital signal is at a frequency of 0.
A distance measurement device comprising: a laser irradiation unit configured to irradiate a measurement target with laser light; and a laser light receiving unit including a light receiving element that is configured to receive laser light reflected by the measurement target on a pixel-by-pixel basis, wherein a pitch of unit pixels of the light receiving element varies with location in a light receiving pixel area, and wherein the pitch of the unit pixels gradually widens in a direction from a central portion of the light receiving element towards a peripheral portion of the light receiving element , so that an incident angle of reflected light to the respective pixels of the light receiving element is constant. a laser irradiation unit configured to irradiate a measurement target with laser light; and a laser light receiving unit including a light receiving element that is configured to receive laser light reflected by the measurement target on a pixel-by-pixel basis, wherein a pitch of unit pixels of the light receiving element varies with location in a light receiving pixel area, and wherein the pitch of the unit pixels gradually widens in a direction from a central portion of the light receiving element towards a peripheral portion of the light receiving element , so that an incident angle of reflected light to the respective pixels of the light receiving element is constant.
Fastening arrangement having a grommet which is to be fixed to a fastening element, wherein the grommet has two mutually opposite, spaced-apart flanges which come into contact with the surface of the fastening element when the grommet has been fixed there, characterized in that the two flanges are connected to one another, so as to form apertures, by means of at least one connecting web , preferably multiple connecting webs .
Device for monitoring a voltage supply for a vehicle system having at least one comparator apparatus which compares an output voltage (Uist) of the voltage supply and/or a voltage (Uist1, Uist2, UTest) derived therefrom as a first input signal with a specified threshold value signal (URef1, URef2) as a second input voltage and outputs a corresponding comparison signal (V1, V2), and a reset apparatus which generates, in accordance with the at least one comparison signal (V1, V2), at least one reset signal (reset, not-reset) which is suitable for placing all the supplied active system modules of the vehicle system in a safe off state, characterized in that a self-diagnostic function is implemented in a control unit of the vehicle system or distributed in individual voltage supplies , wherein the self-diagnostic function evaluates a logic state of the comparison signal (V1, V2), which is output by the at least one comparator apparatus , in accordance with an input signal (Uist, Uist1, Uist2, UTest) and checks whether a reset signal (reset, not-reset) which corresponds to the comparison signal (V1, V2) which is output can be generated, wherein the self-diagnostic function detects a malfunction of the comparator apparatus if the evaluated logic state of the comparison signal (V1, V2) does not correspond to an expected logic state, and wherein the self-diagnostic function detects a malfunction of the reset apparatus if the checked logic state of the reset signal (reset, not-reset) does not correspond to an expected logic state.
An air-conditioning unit , the air-conditioning unit being configured for installation on a roof , the air-conditioning unit including a plurality of functional components , the functional components being arranged in a housing , the housing having an attachment side for installation on the roof , the air-conditioning unit including two support arms , the two support arms supporting at least one functional component of the plurality of functional components such that the at least one functional component is arranged higher with respect to the attachment side than other functional components of the plurality of functional components , the two support arms laterally encompassing the at least one functional component so that each support arm supports a different side of the at least one functional component , the two support arms each supporting the at least one functional component in the area of a face side , the two support arms each having the shape of the capital letter "S" in that each support arm has two face side portions which are positioned at different heights, and one portion connecting these two portions, characterized in that the two support arms each have a C-profile, wherein the C-profiles of the support arms each open toward the at least one functional component , and wherein the at least one functional component is partly arranged in areas encompassed by the C-profiles. the air-conditioning unit being configured for installation on a roof , the air-conditioning unit including a plurality of functional components , the functional components being arranged in a housing , the housing having an attachment side for installation on the roof , the air-conditioning unit including two support arms , the two support arms supporting at least one functional component of the plurality of functional components such that the at least one functional component is arranged higher with respect to the attachment side than other functional components of the plurality of functional components , the two support arms laterally encompassing the at least one functional component so that each support arm supports a different side of the at least one functional component , the two support arms each supporting the at least one functional component in the area of a face side , the two support arms each having the shape of the capital letter "S" in that each support arm has two face side portions which are positioned at different heights, and one portion connecting these two portions, characterized in that the two support arms each have a C-profile, wherein the C-profiles of the support arms each open toward the at least one functional component , and wherein the at least one functional component is partly arranged in areas encompassed by the C-profiles.
A switching device comprising: - at least two electrodes which are arranged apart from each other; - an active portion which is intermediate between both electrodes and in electrical contact with each electrode, the active portion being selected so that said active portion is capable of switching from an electrically insulating state to an electrically conducting state when a voltage which is higher than a threshold value is applied between both electrodes, wherein an electrical resistance of the active portion existing between both electrodes is lower for the conducting state compared to the insulating state; and - a passive portion which is electrically insulating and arranged adjacent to the active portion, wherein a material composition of at least one among the active portion and the passive portion varies between two points of at least one path (PATH1; PATH2) from one of the electrodes to the other electrode , so that a relative dielectric permittivity is non-uniform along said path, thereby creating a concentration of electrical field at at least one concentration location within the active portion when in the insulating state and a non-zero voltage is applied between both electrodes , the electrical field being thus higher at the concentration location than at another location also within said active portion, characterized in that a variation of the relative dielectric permittivity between two points of the path (PATH1; PATH2) is higher than 6. - at least two electrodes which are arranged apart from each other; - an active portion which is intermediate between both electrodes and in electrical contact with each electrode, the active portion being selected so that said active portion is capable of switching from an electrically insulating state to an electrically conducting state when a voltage which is higher than a threshold value is applied between both electrodes, wherein an electrical resistance of the active portion existing between both electrodes is lower for the conducting state compared to the insulating state; and - a passive portion which is electrically insulating and arranged adjacent to the active portion,
A fryer comprising: a cooking chamber including a plurality of side walls connected to and extending upwardly from a bottom wall , the plurality of side walls and the bottom wall collectively surrounding an interior configured to receive a cooking medium; an electric heating element disposed within the interior of the cooking chamber, wherein the electric heating element includes an electric heating coil arranged in a serpentine pattern, the electric heating coil including upper and lower surfaces ; characterized by a spreader bar coupled to the upper surface of the electric heating coil and positioned at a predetermined distance away from the bottom wall, wherein the spreader bar maintains the electric heating coil in the serpentine pattern; and at least one attachment feature that couples the spreader bar to the electric heating element, wherein a plurality of attachment features includes at least one clip having a hook portion that extends around the lower surface of the electric heating element and is removably coupled to the spreader bar using at least one fastener , and wherein the hook portion of the at least one clip is in direct contact with the bottom wall of the cooking chamber, causing the lower surface of the electric heating coil to be at a predetermined distance from the bottom wall of the cooking chamber. a cooking chamber including a plurality of side walls connected to and extending upwardly from a bottom wall , the plurality of side walls and the bottom wall collectively surrounding an interior configured to receive a cooking medium; an electric heating element disposed within the interior of the cooking chamber, wherein the electric heating element includes an electric heating coil arranged in a serpentine pattern, the electric heating coil including upper and lower surfaces ; characterized by a spreader bar coupled to the upper surface of the electric heating coil and positioned at a predetermined distance away from the bottom wall, wherein the spreader bar maintains the electric heating coil in the serpentine pattern; and at least one attachment feature that couples the spreader bar to the electric heating element, wherein a plurality of attachment features includes at least one clip having a hook portion that extends around the lower surface of the electric heating element and is removably coupled to the spreader bar using at least one fastener , and wherein the hook portion of the at least one clip is in direct contact with the bottom wall of the cooking chamber, causing the lower surface of the electric heating coil to be at a predetermined distance from the bottom wall of the cooking chamber.
A compound of Formula (I): or a salt thereof, wherein: R 1 is -NR a (CH 2 ) 3 CH 3 , -O(CH 2 ) 3-5 CH 3 , -S(CH 2 ) 3-4 CH 3 , or -OCH 2 CH 2 O(CH 2 ) 3 CH 3 ; R 2 is -OH or -OP(O)(OH) 2 ; and R a is H or -CH 3 . R 1 is -NR a (CH 2 ) 3 CH 3 , -O(CH 2 ) 3-5 CH 3 , -S(CH 2 ) 3-4 CH 3 , or -OCH 2 CH 2 O(CH 2 ) 3 CH 3 ; R 2 is -OH or -OP(O)(OH) 2 ; and R a is H or -CH 3 .
A vortex chamber comprising a cavity elongating along a central axis (Z) and a swirl generator, said swirl generator comprising • a plurality of swirl channels configured for introducing a gas flow into the cavity as a vortex flow about the central axis, each swirl channel comprising a channel entrance and a channel exit, said swirl generator further comprises • a gas redistribution chamber comprising i) one or more main gas supply inlets for receiving a gas, ii) a distribution channel configured for distributing the gas received from said one or more main gas supply inlets to the channel entrances of said swirl channels, iii) one or more blocking walls configured for blocking and unblocking one or more entrances of the plurality of swirl channels, and wherein the vortex chamber is configured for relatively rotating the channel entrances with respect to the one or more blocking walls from a first angular position to at least a second angular position and vice versa, and further characterised in that in said second angular position the one or more blocking walls block a larger number of channel entrances than when in said first angular position. • a plurality of swirl channels configured for introducing a gas flow into the cavity as a vortex flow about the central axis, each swirl channel comprising a channel entrance and a channel exit, said swirl generator further comprises • a gas redistribution chamber comprising i) one or more main gas supply inlets for receiving a gas, ii) a distribution channel configured for distributing the gas received from said one or more main gas supply inlets to the channel entrances of said swirl channels, iii) one or more blocking walls configured for blocking and unblocking one or more entrances of the plurality of swirl channels, • a gas redistribution chamber comprising i) one or more main gas supply inlets for receiving a gas, ii) a distribution channel configured for distributing the gas received from said one or more main gas supply inlets to the channel entrances of said swirl channels, iii) one or more blocking walls configured for blocking and unblocking one or more entrances of the plurality of swirl channels, i) one or more main gas supply inlets for receiving a gas, ii) a distribution channel configured for distributing the gas received from said one or more main gas supply inlets to the channel entrances of said swirl channels, iii) one or more blocking walls configured for blocking and unblocking one or more entrances of the plurality of swirl channels, and wherein the vortex chamber is configured for relatively rotating the channel entrances with respect to the one or more blocking walls from a first angular position to at least a second angular position and vice versa, and further characterised in that in said second angular position the one or more blocking walls block a larger number of channel entrances than when in said first angular position.
An indoor unit of an air-conditioning apparatus, comprising: a casing being formed with an air inlet in an upper portion of the casing and with an air outlet on a lower front side of the casing ; a plurality of blower fans , including a propeller type or a mixed flow type, being provided on a downstream side of the air inlet so as to be adjacent to each other along a left-right direction of the casing ; a heat exchanger being provided on a downstream side of the blower fans and on an upstream side of the air outlet , the heat exchanger exchanging heat between air that has been blown out from the blower fans and a refrigerant; and a plurality of vertical vanes being oscillatably provided in the air outlet in the left-right direction, the vertical vanes deflecting airflow to be blown out from the air outlet in a left/right direction, wherein at time of deflecting the airflow to be blown out from the air outlet with the vertical vanes in at least one direction in the left/right direction, an air volume of a blower fan of the blower fans disposed on a leftmost side or a rightmost side of the vertical vanes corresponding to the deflection direction is reduced relative to an air volume of a blower fan other than the blower fan disposed on the leftmost side or the rightmost side. a casing being formed with an air inlet in an upper portion of the casing and with an air outlet on a lower front side of the casing ; a plurality of blower fans , including a propeller type or a mixed flow type, being provided on a downstream side of the air inlet so as to be adjacent to each other along a left-right direction of the casing ; a heat exchanger being provided on a downstream side of the blower fans and on an upstream side of the air outlet , the heat exchanger exchanging heat between air that has been blown out from the blower fans and a refrigerant; and a plurality of vertical vanes being oscillatably provided in the air outlet in the left-right direction, the vertical vanes deflecting airflow to be blown out from the air outlet in a left/right direction, wherein at time of deflecting the airflow to be blown out from the air outlet with the vertical vanes in at least one direction in the left/right direction, an air volume of a blower fan of the blower fans disposed on a leftmost side or a rightmost side of the vertical vanes corresponding to the deflection direction is reduced relative to an air volume of a blower fan other than the blower fan disposed on the leftmost side or the rightmost side.
A droplet ejection device comprising a. a nozzle head comprising a plurality of ejection units , each ejection unit comprising a nozzle , a duct connected to the nozzle and fluidly connected to a liquid supply channel for receiving a liquid in the duct, and an electromechanical transducer arranged to generate a pressure wave in the liquid in the duct so as to expel a droplet of the liquid from the nozzle , and b. an electronic control circuit arranged to apply control signals to the transducers and to receive detection signals that are generated in the transducers in response to the transducer being exposed to pressure fluctuations, wherein the nozzle head further comprises a reference unit with a reference duct , which reference duct is not fluidly connected to the liquid supply channel such that the reference duct remains free from the liquid, and a reference electromechanical transducer , and wherein the control circuit comprises a subtracting circuit for subtracting a detection signal of the reference electromechanical transducer from a detection signal of a transducer of at least one of the ejection units ; and an analysis circuit for analyzing an output of the subtracting circuit for determining an ejection unit status. a. a nozzle head comprising a plurality of ejection units , each ejection unit comprising a nozzle , a duct connected to the nozzle and fluidly connected to a liquid supply channel for receiving a liquid in the duct, and an electromechanical transducer arranged to generate a pressure wave in the liquid in the duct so as to expel a droplet of the liquid from the nozzle , and b. an electronic control circuit arranged to apply control signals to the transducers and to receive detection signals that are generated in the transducers in response to the transducer being exposed to pressure fluctuations,
Method for producing adhesive bonds based on two-pack polyurethane adhesives comprising a first pack A containing at least one polyester A1 which is solid at room temperature and at least one polyol A2 having a hydroxyl group functionality greater than 2.0 and optionally additives, and a second pack B containing polyurethane prepolymers having isocyanate groups and optionally additives, comprising the separate melting of the A and B packs, depending on the melt viscosity, at temperatures above the melting points and/or glass transition points of all the constituents in the two packs, mixing of the two liquid packs A and B and subsequent application to the substrates to be bonded.
Vehicle tyre comprising a tread with at least two rows of tread bars running in the circumferential direction, with tread bars lying next to one another in pairs in the axial direction, which are separated from one another by transverse channels , wherein the tread bars lying next to one another are separated from one another by a cross-sectionally substantially U-shaped circumferential groove with a groove base and a sipe running from the groove base in the radial direction, wherein the circumferential grooves and the sipes run at an angle (β) to the circumferential direction of up to 30°, wherein the circumferential grooves have a depth (T 1 ) of 1.5 mm to 2.5 mm and wherein the sipes end at a distance (a 1 ), determined in the radial direction, of up to 2.0 mm above the level of the profile depth and have a width (B 2 ) of 0.2 mm to 0.7 mm, characterized in that the circumferential grooves and the sipes run straight in plan view and the circumferential grooves have at the periphery of the tread a width (B 1 ) that is 2.0 times to 3.0 times their depth (T 1 ) .